Methods, Systems, and Apparatuses for Managing a Hard Drive Security System

ABSTRACT

Methods, systems, and apparatuses for a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, and the pre-boot region. The SED management system comprises a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS to transfer control directly to an operating system of the nominal space upon a successful authentication. Other embodiments are described and claimed.

I. CROSS REFERENCE TO RELATED APPLICATION

This application claims priority under 35 USC §119(e)(1) of Provisional Application No. 61/448,180, filed Mar. 1, 2011, incorporated herein by reference.

II. FIELD OF THE DISCLOSURE

The present disclosure relates generally to systems, methods, and apparatuses for securing hard drives. More particularly, the disclosure relates to systems, methods and apparatuses for managing systems designed to secure a hard drive by encrypting and hiding portions of the hard drive.

III. BACKGROUND OF THE DISCLOSURE

Disk security is an important concern for computer owners and users. Many current software packages for hard drive encryption on a personal computer with a normal hard drive (HD) require the user to install a software package. The software package works with the central processing unit of the personal computer to encrypt every byte on the hard disk drive, except for the very first sectors of the hard drive. When the user shuts down the personal computer and the user or another person boots up the personal computer at a later time, instead of immediately booting into the operating system (OS), such as the Windows® operating system by Microsoft®, the software prompts the user to type in password. If the correct password is entered, the personal computer will successfully decrypt information on the HD and may place some of this information into memory. The OS will boot up, engage and read from the HD, decrypt and then use the data. For a Write operation to the HD, the OS encrypts data and then writes to HD, adding a whole layer of software to encrypt/decrypt. Such software packages employ a software algorithm to accomplish these tasks. Unfortunately, the software can be hacked by skillful persons. The software algorithm also affects performance of personal computer. As all the work is performed by the central processing unit (“CPU”) of the personal computer in the background, performance of the personal computer is lowered.

IV. SUMMARY

The embodiments of the disclosure described herein include a system comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprises a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS, and an unlocking software program configured to work with the pre-boot OS, and configured to request and accept at least two forms of user authentication to unlock the nominal space of the SED, when the SED-based computer is turned on.

The embodiments of the disclosure described herein include a system comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS to transfer control directly to an operating system of the nominal space upon a successful authentication.

The embodiments of the disclosure described herein include a system comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS, and an access management functionality, wherein the access management functionality is configured to providing access to the nominal space for at least one user and an Administrator.

The embodiments of the disclosure described herein include a system comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS, and an access management functionality, wherein the access management functionality is configured to activate encryption for the SED-based personal computer.

The embodiments of the disclosure described herein include a system comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and a sleep mode control functionality.

The embodiments of the disclosure described herein include a system comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; at least one pre-boot functionality capable of operating when the nominal space on the SED-based computer is encrypted

The embodiments of the disclosure described herein include an apparatus comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS and configured to request and accept two or more forms of user identification to unlock the nominal space of the SED, when the SED-based computer is turned on.

The embodiments of the disclosure described herein include a system comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS, and an instant on transition state functionality.

The embodiments of the disclosure described herein include a system comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and a sleep mode control functionality.

The embodiments of the disclosure described herein include an apparatus comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; a pre-boot graphical user interface configured to interact with a user during a pre-boot authentication process, and an unlocking software program configured to work with the pre-boot OS and configured to transfer control directly to an operating system for the nominal space upon completion of a successful pre-boot authentication process.

The embodiments of the disclosure described herein include an apparatus comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; a pre-boot graphical user interface configured to interact with a user during a pre-boot authentication process, and an unlocking software program configured to work with the pre-boot OS an access management functionality, wherein the access management functionality is configured to providing access to the nominal space for at least one user and an Administrator.

The embodiments of the disclosure described herein include an apparatus comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; a pre-boot graphical user interface configured to interact with a user during a pre-boot authentication process, and an unlocking software program configured to work with the pre-boot OS an access management functionality, wherein the access management functionality is configured to activate encryption for the SED-based personal computer.

The embodiments of the disclosure described herein include an apparatus comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and a secure recovery functionality.

The embodiments of the disclosure described herein include an apparatus comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; a pre-boot graphical user interface configured to interact with a user during a pre-boot authentication process, and an unlocking software program configured to work with the pre-boot OS, and an instant transition state functionality.

The embodiments of the disclosure described herein include an apparatus comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and a sleep mode control functionality.

The embodiments of the disclosure described herein include an apparatus comprising a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer also having a nominal space, which may be encrypted when the SED-based computer is shut down. The SED management system comprising a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and at least one pre-boot functionality capable of operating when the nominal space on the SED-based computer is encrypted.

The embodiments of the disclosure described herein include a method including the steps of responding to the entry of a user's nominal credentials for an SED-based machine, having a nominal space and a pre-boot region, by hashing nominal credentials of the user to create a first hash, generating a driver session key, using the driver session key to encrypt an SED credential, using the first hash to encrypt the driver session key, and requesting, when the SED based machine having its nominal space encrypted is started up, the users' nominal credentials, hashing the user's nominal credentials as entered to create a second hash; and using the second hash to attempt to decrypt encrypted driver session key.

The embodiments of the disclosure described herein include a method including the steps of providing a user of an SED-based machine, having a nominal space and a pre-boot region, with a challenge code as a response to a lockout of the user as a result of a failure of the user to correctly enter the user's nominal credentials, responding to the entry of the challenge code by an administrator for the SED-based machine by providing the administrator with a response code, responding to the user entering the response code by unlocking the SED; and requiring the user to select a new password.

The embodiments of the disclosure described herein include a method including the steps of activating an emergency login functionality for a user of an SED-based machine, having a nominal space and a pre-boot region, when the user selects at least one challenge question and provides an answer for each selected challenge question, and responding to a subsequent lockout of the user as a result of a failure of the user to correctly enter the user's nominal credentials by posing the at least one challenge question to the user.

The embodiments of the disclosure described herein include a method including the steps of setting up at a profile for at least one non-administrative user of a SED-based machine, having a nominal space and a pre-boot region, responsive to input from an administrator for the SED-based machine, dividing the nominal space of the SED-based machine into at least two partitions, responsive to input from the Administrator, and assigning, responsive to input from the Administrator, to each partition whether non-administrator has access to the partition and for each partition to which the user has access, whether the user's access is read only or read/write.

The embodiments of the disclosure described herein include a method including the steps of obtaining a notification from a credential provider via a hook in an SED-based machine, having a nominal space with a nominal operating system and a pre-boot region with a pre-boot operating system, that a nominal old password of a user of the SED-based machine is being changed, the user also having a nominal username and an SED password, hashing the user's nominal username and the user's old password to create a first hash, using the first hash to decrypt the SED password of the user, hashing the user's nominal username and a new nominal password the user has selected to encrypt the SED password of the user, requesting, when the SED based machine having its nominal space encrypted is started up, the users' nominal username and new nominal password, hashing the user's nominal username and the user's new nominal password as entered to create a second hash; and using the second hash to attempt to decrypt the SED password of the user.

The embodiments of the disclosure described herein include a method including the steps of making a backup copy of a nominal operating system and an image of a nominal space of an SED-based machine, having a nominal space with the nominal operating system and a pre-boot region with a pre-boot operating system, responsive to input from an administrator for the SED-based machine through an SED management console, creating a partition of a hard drive; and placing the backup copy on the partition.

The embodiments of the disclosure described herein include a method including the steps of saving the state of a nominal operating system of a SEM-based machine having a nominal space and a pre-boot region, during a boot strap process before control is transferred from a basic input/output system (BIOS) to a pre-boot operating system for an authentication process, instructing the pre-boot operating system not to touch memory locations where the state of the nominal operating system is stored, transferring control from the BIOS to the pre-boot operating system for the authentication process, conducting the authentication process, retrieving the state of the nominal operating system from memory and re-programming the nominal operating system to the saved state.

The embodiments of the disclosure described herein include a method including the steps of saving an administrator SED credential into memory by a sleep alert device driver upon being prompted by a signal from a central processing unit (CPU) of an SED-based computer, having a nominal space with a nominal operating system (OS) and a pre-boot region with a pre-boot OS, that the computer is going into a Sleep mode state S3, retrieving the SED credential from memory by the sleep alert device driver when prompted by a second signal from the CPU that the computer is coming out of the Sleep mode state S3, sending the SED credential to the SED to unlock the nominal space; and transferring control from the pre-boot OS to the nominal OS.

The embodiments of the disclosure described herein include a method including the steps of connecting a server to a plurality of SED-based machines, detecting by the server of when one of the SED-based machines has entered a Hibernate mode state S4, powering up the hibernating SED-based machine by the server, sending the SED password for the powered up SED-based machine from the server to an unlocking program on the powered up SED-based machine to unlock the nominal space on the powered up SED-based machine, backing-up of the nominal space on the powered up SED-based machine by the server; and returning the powered up SED-based machine to the Hibernate mode state S4 by the server.

The embodiments of the disclosure described herein include a non-transitory machine-readable medium that provides instructions, which when executed by a machine, that cause said machine to perform operations of unlocking an encrypted nominal space on a computer, comprising providing on the computer a pre-boot region having an operating system, providing an unlocking program stored in the pre-boot region, configured to execute and take control of the computer when a BIOS for the computer attempts to read a sector as part of a boot-strapping process, and wherein during the execution of the unlocking software, entry of a user's credentials for an operating system of the nominal space suffices to retrieve a password to unlock the encrypted nominal space.

The embodiments of the disclosure described herein include a computer system an electronic device operable to support an operating system (OS) environment and operable to communicate with a server system, said electronic device comprising a central processing unit, a memory array coupled to said central processing unit, an expansion bus coupled to said central processing unit and said memory array, said expansion bus capable of interfacing peripheral devices; a basic input/output system (BIOS) memory coupled to said expansion bus, comprising a BIOS security component; and an SED-based hard disk drive coupled to said expansion bus, the SED-based hard disk drive comprising a nominal operating system, a nominal space that may be encrypted and may be decrypted after a user authentication process, a pre-boot region with a pre-boot operating system and a pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS, and configured to transfer control directly to the nominal operating system upon a successful user authentication process.

Other aspects and advantages of the embodiments described herein will become apparent from the following description and the accompanying drawings, illustrating the principles of the embodiments by way of example only.

V. BRIEF DESCRIPTION OF THE DRAWINGS

Features and advantages of the present disclosure will become apparent from the appended claims, the following detailed description of one or more example embodiments, and the corresponding figures.

FIG. 1 a depicts memory in a non-SED based personal computer. FIG. 21 b depicts memory in an SED based personal computer.

FIG. 3 depicts memory in an SED based personal computer, in accordance with one or more embodiments of the present disclosure.

FIG. 3 depicts several features of the access management functionality, which may be included in accordance with one or more embodiments of the present disclosure.

FIG. 4 is a flowchart for a process of password mapping functionality, in accordance with one or more embodiments of the present disclosure.

FIGS. 5 a and 5 b are flowcharts for an emergency logon functionality, in accordance with one or more embodiments of the present disclosure.

FIG. 6 is a block diagram representing an architecture in accordance with one of more embodiments of the present disclosure on the server side.

FIG. 7 is a block diagram representing an architecture in accordance with one of more embodiments of the present disclosure on the client side.

FIG. 8 is a flowchart for a process to use the SED management console to customize user access, in accordance with one or more embodiments of the present disclosure.

FIG. 9 is a flowchart for a process of adding additional users, in accordance with one or more embodiments of the present disclosure.

FIG. 10 is a flowchart of a process for synchronizing nominal and pre-boot authentication, in accordance with one or more embodiments of the present disclosure.

FIG. 11 depicts a block diagram of a machine in accordance with one or more embodiments of the present disclosure.

FIG. 12 is a flowchart for a secure recovery process, in accordance with one or more embodiments of the present disclosure.

FIG. 13 is a flowchart for an instant transition process, in accordance with one or more embodiments of the present disclosure.

FIG. 14 depicts a flowchart for a sleep mode control, in accordance with one or more embodiments of the present disclosure.

FIG. 15 depicts a flowchart for a back-up process for use in an enterprise setting, in accordance with one or more embodiments of the present disclosure.

FIG. 16 depicts a screenshot from a pre-boot GUI for enrolling a new user, in accordance with one or more embodiments of the present disclosure.

FIG. 17 a depicts a screenshot from a pre-boot GUI of a welcome page for enrolling a new user, in accordance with one or more embodiments of the present disclosure. FIG. 17 b depicts a screenshot from a pre-boot GUI for verifying authentication of a user, in accordance with one or more embodiments of the present disclosure. FIG. 17 c depicts a screenshot from a pre-boot GUI for selecting a form of authentication for enrolling a new user, in accordance with one or more embodiments of the present disclosure. FIG. 17 d depicts a screenshot from a pre-boot GUI for finishing user enrollment, in accordance with one or more embodiments of the present disclosure. FIGS. 17 e and 17 f depict screenshots from a pre-boot GUI for backing up a user profile, in accordance with one or more embodiments of the present disclosure.

FIG. 18 a depicts a screenshot from a pre-boot GUI for enrolling a form of authentication a user, in accordance with one or more embodiments of the present disclosure. FIG. 18 b depicts a screenshot from a pre-boot GUI for selecting a finger from which to enroll a fingerprint, in accordance with one or more embodiments of the present disclosure. FIG. 18 c depicts a screenshot from a pre-boot GUI illustrating different fingerprint sensors, in accordance with one or more embodiments of the present disclosure. FIG. 18 d depicts a screenshot from a pre-boot GUI for acknowledging successful fingerprint enrollment, in accordance with one or more embodiments of the present disclosure. FIG. 18 d depicts a screenshot from a pre-boot GUI for acknowledging successful device enrollment, in accordance with one or more embodiments of the present disclosure

FIG. 19 a depicts a screenshot from a pre-boot GUI for supplemental encryption, in accordance with one or more embodiments of the present disclosure. FIG. 19 b depicts a screenshot from a pre-boot GUI depicting encryption of a folder containing multiple files, in accordance with one or more embodiments of the present disclosure.

FIG. 20 a depicts a screenshot from a pre-boot GUI depicting selection of a “Decrypt To” function, in accordance with one or more embodiments of the present disclosure. FIG. 20 b depicts a screenshot from a pre-boot GUI depicting selection of a decryption location, in accordance with one or more embodiments of the present disclosure.

FIG. 21 a depicts a screenshot from a pre-boot GUI depicting selection of a “secure sharing” function, in accordance with one or more embodiments of the present disclosure. FIG. 21 b depicts a screenshot from a pre-boot GUI depicting selection of a user with whom to share encrypted data, in accordance with one or more embodiments of the present disclosure.

FIG. 22 depicts icons from a pre-boot GUI illustrating a file before encryption and the file after encryption, in accordance with one or more embodiments of the present disclosure.

FIG. 23 depicts a screenshot from a pre-boot GUI of a screen which may be used to begin restoring a user's profile, in accordance with one or more embodiments of the present disclosure.

FIG. 24 depicts a screenshot from a pre-boot GUI of a screen used for selecting a user profile to restore, in accordance with one or more embodiments of the present disclosure.

FIG. 25 depicts a screenshot from a pre-boot GUI of an SED management software control center main window, in accordance with one of more embodiments of the present disclosure.

FIG. 26 depicts a screenshot from a pre-boot GUI of a screen used for selecting files to protect, in accordance with one or more embodiments of the present disclosure.

FIG. 27 a depicts a screenshot from a pre-boot GUI of a screen used to change user settings, in accordance with one or more embodiments of the present disclosure. FIG. 27 b depicts a cropped screenshot from a pre-boot GUI of a screen used to change user audio settings, in accordance with one or more embodiments of the present disclosure. FIG. 27 c depicts a cropped screenshot from a pre-boot GUI of a screen used to change user authentication window settings, in accordance with one or more embodiments of the present disclosure. FIG. 27 d depicts a cropped screenshot from a pre-boot GUI of a screen used to modify file encryption settings, in accordance with one or more embodiments of the present disclosure. FIG. 27 e depicts a screenshot from a pre-boot GUI of a screen used to set authentication rules, in accordance with one or more embodiments of the present disclosure. FIG. 27 f depicts a screenshot from a pre-boot GUI of a screen used to activate emergency logon functionality, in accordance with one or more embodiments of the present disclosure.

FIG. 28 a depicts a screenshot from a pre-boot GUI of a screen used to change system settings, in accordance with one or more embodiments of the present disclosure. FIG. 28 b depicts a cropped screenshot from a pre-boot GUI of a screen used to enable single sign on (SSO), in accordance with one or more embodiments of the present disclosure. FIG. 28 c depicts a cropped screenshot from a pre-boot GUI of a screen used to enable S3 standby mode, in accordance with one or more embodiments of the present disclosure. FIG. 28 d depicts a screenshot from a pre-boot GUI of a screen used for settings for an SED management software, in accordance with one or more embodiments of the present disclosure.

FIG. 29 a depicts a screenshot from a pre-boot GUI of a screen used for an SED management console, in accordance with one or more embodiments of the present disclosure. FIG. 29 b depicts a screenshot from a pre-boot GUI of a screen used for an SED management console to modify fingerprint data, in accordance with one or more embodiments of the present disclosure.

FIG. 30 depicts a screenshot from a pre-boot GUI of a screen used for selecting a sharing and security model for local accounts, in accordance with one or more embodiments of the present disclosure.

FIG. 31 a depicts a cropped screenshot from a pre-boot GUI of a screen used to communicate login error, in accordance with one or more embodiments of the present disclosure. FIG. 31 b depicts a cropped screenshot from a pre-boot GUI of a screen used to re-confirm a user password, in accordance with one or more embodiments of the present disclosure.

While the disclosure is subject to various modifications and alternative forms, specific embodiments thereof are shown by way of example in the drawings and the accompanying detailed description. It should be understood, however, that the drawings and detailed description are not intended to limit the disclosure to the particular embodiments. This disclosure is instead intended to cover all modifications, equivalents, and alternatives falling within the scope of the present disclosure as defined by the appended claims.

VI. DETAILED DESCRIPTION

The drawing figures are not necessarily to scale and certain features may be shown exaggerated in scale or in somewhat generalized or schematic form in the interest of clarity and conciseness. In the description which follows, like parts may be marked throughout the specification and drawing with the same reference numerals. The foregoing description of the figures is provided for a more complete understanding of the drawings. It should be understood, however, that the embodiments are not limited to the precise arrangements and configurations shown. Although the design and use of various embodiments are discussed in detail below, it should be appreciated that the present disclosure provides many inventive concepts that may be embodied in a wide variety of contexts. The specific aspects and embodiments discussed herein are merely illustrative of ways to make and use the disclosure, and do not limit the scope of the disclosure. It would be impossible or impractical to include all of the possible embodiments and contexts of the disclosure in this disclosure. Upon reading this disclosure, many alternative embodiments of the present disclosure will be apparent to persons of ordinary skill in the art.

In contrast, a self-encrypting hard drive (“SED”) such as Seagate DriveTrust™, for example, will encrypt and decrypt the hard drive of a personal computer using a processor or microcontroller on the SED (“SED processor” or “SED microcontroller”), instead of using the CPU of the personal computer. At least one password key for encryption/decryption is kept in the SED. This makes an SED-based system more secure than a software-based encryption system, such as those described above. The SED-based system is also harder to for a person to hack or infect with a virus.

The SED may use the same or similar software algorithm as the software package would use, but the method of operation is different. When user first receives a SED, it is appears to be just like a conventional hard drive and the encryption function is turned off. If the user boots the SED with encryption on, the user will only be able to access a finite block of data. The minimum size of the finite block is usually around 128 MB. The SED will only show the user a “shadow” Master Boot Record (MBR) on the finite block (which is also called the “MBR shadow block” herein). The shadow MBR on the finite block is separate from the sectors at beginning of a nominal portion of the SED, where the nominal OS, such as Windows, is stored and operates. (The Windows OS is used herein as an example of an operating system for the nominal portion of an SED in discussions of various embodiments of the present disclosure, but other operating systems for the nominal portion of an SED could also be used.) The shadow MBR on the finite block is a special area of the hard drive and is typically a read only section by default. With an SED, the WINDOWS (or other nominal) OS does not know whether the data is encrypted: all data is moved into and out of the SED as normal, unencrypted data.

To activate encryption on the SED, an SED-related management and configuration software running in the WINDOWS (or other nominal OS) will send special commands to take ownership of the administrative access to the drive. After this, only the SED-related management and configuration software will be able to lock and unlock the encryption on the SED drive. To complete the activation process, the SED-related management and configuration software will temporarily grant write access to the MBR shadow block and place an unlocking software program in the MBR shadow block and then revert the MBR shadow block back to read only. When user turns on the PC, the unlocking software program executes and prompts the user for authentication. If the user authentication is successful, then the unlocking software in the MBR shadow block will unlock the nominal portion of the SED. This exposes the read/writeable nominal portion of SED that stores Windows OS, software applications, files and data.

SED-based systems are more secure than software-based encryption systems. In a non-SED HD with a software-based encryption, the unlocking software is stored in the sectors of nominal HD space, not in an MBR shadow Block. In addition, in software-based encryption system, the sectors of the nominal HD space containing the unblock software is typically read/write space, which is less secure than read only.

FIG. 1 a depicts memory in a non-SED based personal computer; FIG. 1 b depicts memory in an SED-based personal computer. (None of the figures herein, including FIG. 1 a and FIG. 1 b, are drawn to scale.) Referring to FIG. 1 a, the nominal memory space 90 on the non-SED based personal computer is also the total memory of the personal computer. If the non-SED based personal computer is advertised as having 100 GB, the total memory space 90 is 100 GB.

Referring to FIG. 1 b, the nominal space 110 on the SED personal computer may be represented as sectors 0 to N. Unlike non-SED based personal computers, the SED-based personal computers have X additional sectors 120 of memory in the SED which comprise the finite block and which are used as (and may also be called) the MBR shadow block 120. The MBR shadow block 120 of X sectors may be represented as a sector region of N+1 to N+X. This N+1 to N+X sector region 120 is normally hidden and is not part of a nominal space 110. If an SED-based system is sold by a manufacturer having a nominal space 110 of 100 GB, for example, the actual physical storage space 100 may be 110 GB, with the MBR shadow block 120 of X sectors (from N+1 to N+X) providing the extra 10 GB. If one were to start the PC with encryption on, the nominal space 110 of 100 GB would be encrypted and locked and would not be accessible to the user.

In computers, software stored on the motherboard called a Basic Input/Output system (“BIOS”) working with a microcontroller, controls the keyboard, the booting process, and identifies and configures hardware for the personal computer. If the user starting the SED-based personal computer with encryption on went into to the BIOS to determine the size of the SED memory, the BIOS would only show the unlock MBR shadow block 120 of 10 GB as the apparent size, because the nominal space 110 is invisible to the user and to BIOS until the proper password is entered and accepted.

When encryption is on, the nominal space 110 of 0 to N on the SED-based personal computer is encrypted. In the example above, this would be the 100 GB space on the SED which contains the operating system such as Windows, software programs and data. As mentioned above, the SED-based personal computer nominally having N sectors will also include the additional sector region of N+1 to N+X, used as the MBR shadow block 120, which is often located either at the beginning or at the end of the nominal space 110 on the SED. (In the example above, this would be the additional 10 GB of space on the HD.)

The SED-based system does not expose the unlock MBR shadow block 120 of sector region of N+1 to N+X until encryption is activated and the nominal encrypted area is locked. But with encryption on, when the personal computer is powered up, because the nominal space 110 of 0 to N is encrypted, hidden, inaccessible and locked, the sector beginning at N+1 is the first sector that can be accessed. When encryption is activated and user seeks a byte at address 0, the user will not obtain the actual address 0, which is protected and not accessible; the SED instead returns N+1, the first sector of the MBR shadow block 120, which contains a unlocking software program. Because the MBR shadow block 120 is read-only and protected, the MBR shadow block 120 cannot be erased or overwritten by a hacker. And while encryption is activated, the 0 to N sector 110 in the body of the SED cannot be accessed or copied.

In a computer which is not protected by an SED-based system, a hacker may be able to hack into data on the computer using brute force decryption techniques. But in SED-based systems, the hacker cannot read or access the data on nominal space 110 of the HD, because it is encrypted, hidden and locked, and cannot write to the MBR shadow block 120, which is read-only.

In an SED-based system, a small unlocking software program is stored in the MBR shadow block 120; that is, somewhere in the space of N+1 to N+X, which is usually at least 128 MB and is 10 GB in the example described above. The unlocking software program is executed and asks for password and/or requests some other form of authentication (e.g. fingerprint, smart card, etc.). When the user responds by entering a password and/or supplying another form of authentication, the credential to unlock the SED is sent by unlocking software program to the SED. If the credential is correct, the MBR shadow block 120 becomes hidden while the 0 to N sector 110 containing the Windows OS, software applications and data become unlocked and visible. If the user accesses BIOS at this time, the total size of the SED will appear to be 0 to N sector region 110 or the nominal SED size of 100 GB in the example described above. At this point, the MBR shadow block 120 will be hidden from BIOS and the user. The Windows OS (or whatever OS is used for the conventional operations for the computer) will begin to boot up the computer.

SED-based systems are very secure systems. Even if someone steals the SED-based computer, removes the SED, and places the SED into another PC, all the unauthorized user can see is the 10 GB of unlocking area in the SED and because that 10 GB area is read-only, the unauthorized user cannot write to it or infect it with a virus. The unauthorized user cannot access the remaining 100 GB nominal portion of SED containing the Windows OS, the software applications and the data.

Looking in more detail at the start up process, a non-SED based system, the BIOS process of starting up the personal computer begins with a Perform Power-On-Self-Test (POST); followed by a memory test; a check for devices present, reading Sector 0; putting Sector 0 into memory; transferring control to Sector 0 (generally to 512 bytes of that sector) and beginning execution of the OS. This is called boot strapping process.

The boot strapping process is different for an SED-based system. When the SED-based personal computer is powered on in a locked/encrypted mode, the BIOS system attempts to read sector 0 of the SED. But the BIOS system cannot do so because the 0 to N sector 110 are encrypted, hidden, and locked. The microcontroller instead selects the first readable sector, which is the first sector of the MBR shadow block 120, where the unlocking software program is located. The BIOS accesses the first sector of unlocking MBR shadow block 120, which puts the unlocking software program, instead of the OS for the nominal portion of the SED such as Windows, into memory. Then BIOS transfers control to unlocking software program. The unlocking software program may ask for more sectors, but SED will only provide access to additional sectors of the MBR shadow block 120. When the unlocking software program is in memory and running, the unlocking software program asks the user for password (and/or other form of authentication); and when the user enters the password (and/or provides the authentication) sends an SED unlock credential to the SED microcontroller. Typically the SED unlock credential is protected by the user authentication and the SED unlock credential is not accessible unless the user successfully authenticates. If the SED unlock credential is correct, the SED moves into an unlocked mode and sectors 0 to N become accessible. The unlocking software program then reads sector 0 containing actual SED data and puts sector 0 containing the Windows (or other) OS into memory. The unlocking software program transfers control to sector 0 and the CPU of the personal computer begins execution of the OS. Thus the unlocking software program performs the last steps usually performed by the BIOS in non-SED based systems.

“The Trusted Computing Group (TCG) is an international industry standards group. The TCG develops specifications amongst its members. Upon completion, the TCG publishes the specifications for use and implementation by the industry.” See: http://www.trustedcomputinggroup.org/about_tcg

An organization within the TCG, the Storage Work Group (SWG) focuses on Specifications for secure methodologies for computing storage and has set up several Security sub-system Classes (SSCs), which comprise of different classes of Core Specification compliance, to address different needs of users. Specifically, the Opal SSC addresses “fixed media storage devices on consumer and enterprise storage systems, such as notebooks and desktops.” See: http://www.trustedcomputinggroup.org/resources/storage_work_group_storage_security_subsyst em_class_opal_summary/

Incorporated herein by reference in its entirety, the “TCG Storage Architecture Core Specification, Specification Version. 2.00 Final Revision 1.0, Apr. 20, 2009” may be found at http://www.trustedcomputinggroup.org/files/static page files/B6811067-1D09-3519-ADDAFC18E3A87CB2/Storage Architecture Core Spec v2 r1-Final.pdf

Incorporated herein by reference in its entirety, the “TCG Storage Security Subsystem Class: OPAL Specification Version 1.00 Revision 3.00, Feb. 4, 2010” may be found at http://www.trustedcomputinggroup.org/files/static page files/9FE14508-1D09-3519-AD7D21A695E9B8EE/Opal SSC_(—)1.00_rev3.00-Final.pdf

The OPAL hard drive standard includes commands used to activate the encryption on an SED-based system and to lock and unlock the encrypted SED. But the actual implementation of activating the encryption, locking and unlocking the SED is independent software vendors (ISVs).

The OPAL HD standard currently allows up to four users and Administrative user to unlock the hard drive of a single personal computer. Of course, the number of permitted users may change in the OPAL or other standards from time to time. This requires up to five authentication tokens, pins or passwords (one for each user and for the Administrator user) to unlock the hard drive under OPAL HD standard. But this may not be enough. When the SED is turned off and goes into locked mode, a user will need to enter his or her Windows' (or other) OS password in order to boot up and obtain access to the nominal hard drive space. The usernames and passwords used to unlock the SED are not used for the Windows OS. A particular user named John Doe might be recognized by the Windows OS as “JohnDoe,” having Windows password “sftx123.”. But the SED unlock credential is just a PIN or password and would be different from the Windows password. So only a maximum of five users (under current OPAL standards) can unlock the SED before the unlock password/PIN of the SED must be shared by users. It is inadvisable to permit sharing as it is a security risk for users to share passwords. An enterprise such as a business or governmental entity may have more than one level of security. For example, some information in the enterprise's computer system may be available to the public or to everyone in the firm with no authentication required. This may include a business's public website. But other material within the enterprise's computer system may be available only to those who log in with a single type of security, such as a password. A third level of material may be highly confidential; access to the third level material may require special authorization or supplemental authentication. In addition, some enterprises may provide a certain level of access to its customers and/or suppliers, based on one or more levels of authentication. Single Sign On (SSO), also known as “Reduced Sign On” (RSO) allows a user to sign on once and enjoy the full extent of the user's proper level of access to an enterprise computer system, without having to re-enter his username or password when going from one level of access to another. There may also be links on the enterprise firm's website, for example, to suppliers who provide employee benefits. An employee who has been authenticated may click on that link and be taken to the provider's website to access the user's benefit information, without having to provide additional authentication.

Embodiments of the present disclosure manage SED-based security and provide additional functionality to improve and enhance user experience of SED technology. FIG. 2 depicts memory in an SED based personal computer, in accordance with one or more embodiments of the present disclosure. As with other SED-based systems, the total memory space 200 in an SED-based system managed in accordance with one or more embodiments of the present disclosure includes sectors 0 to N as a nominal space 210 and X additional sectors (sector region 220 N+1 to N+X) as the MBR shadow block 220 or the “pre-boot region” 220. The pre-boot region 220 may vary in size, and may be as small as 128 bytes but 10 GB is sufficiently large to include a SED management software 222 with a pre-boot operating system 225 (“pre-boot OS”) and one or more pre-boot libraries 230, an unlocking program 231 and additional useful functionality. The inclusion of the pre-boot OS 225 and the pre-boot libraries 230 in the SED management software 222 allows for additional functionality 236 such as access management 232 (which may include password facilitation and mapping), pre-boot erase 238, pre-boot backup 240, pre-boot presentations 242 of presentations (or other work product) created in programs such as PowerPoint®, pre-boot browsing 244, pre-boot communication 246 including without limitation e-mailing and/or instant messaging (“IM”), pre-boot entertainment 248 and other secure pre-boot functionality 250. Some of the additional functionality 236 listed is discussed in greater detail below.

The pre-boot OS 225 mentioned above is preferably a selectively chosen subset or “kernel” of an existing operating system program, such as Linux. Ordinary operating systems like Linux® or Windows are large, with the Linux OS currently on the order of 100 MB in size. Linux has a configuration mechanism called a Linux config file, which may be used to create the kernel of Linux comprising the pre-boot OS 225 by selecting the Linux components needed for the pre-boot OS 225. Using Linux as a starting point, the pre-boot OS 225 may be configured to take up about 15 MB of space and may start up in about five seconds. The pre-boot OS 225 preferably has graphics and other capabilities. For example, an unlocking software program 231 typically requires supporting libraries and code for key entry, drawing, and graphics, which are present in Linus. Linux also has drivers for biometric devices (such as fingerprint authentication devices) and smart cards, which are useful for security applications. An unlocking software program 231 is preferably part of the SED management software 222, is stored in the pre-boot region 220 and is written with the pre-boot OS 225, such as the Linux kernel OS. As an alternative to creating the pre-boot OS 225 from Linux, the pre-boot OS 225 may be created (if permitted) as a subset of some other operating system such as DOS, OS2, Free BSD and/or Android or may be an original creation. The Linux kernel comprising the pre-boot OS 225 is used to support the Pre-Boot Authentication (PBA) process, which is the process of using authentication to unlock and decrypt the nominal portion of the SED.

As depicted in FIG. 2 and discussed above, in accordance with one or more embodiments of the present disclosure, the SED management software 222 may include at one or more state-related functionality 270, such as a secure recovery 272, instant on functionality 274, and sleep mode controls 276. The state-related functionalities 270 are discussed in greater detail in the following paragraphs.

FIG. 12 is a flowchart for a secure recovery 272 process, in accordance with one or more embodiments of the present disclosure. In one or more embodiments of the present disclosure, the secure recovery functionality 272 provides for disaster recovery. Many events, such as a virus, willful physical destruction, a storm-related damage or an earthquake to name a few, can cause memory loss in computers. Referring to FIG. 12, through the SED management console 300, the Administrator may create a separate partition of the server and place on the partition a backup copy of the nominal OS and a ghost image of the nominal space 210, which may include all the data and programs on the nominal space 210. Alternatively, the back-up copy may be stored on a secondary hard drive, USB drive or any convenient location. The back-up copy may be updated on a periodic basis. If one or more of the data, the programs or the nominal OS from the nominal space 210 is deleted (“deleted material”), the Administrator may use the backup copy to restore the deleted material to the SED.

As depicted in FIG. 2 and discussed above, in accordance with one or more embodiments of the present disclosure, the transition from the pre-boot process to the nominal OS may be performed as an instant transition state 274. FIG. 13 is a flowchart for an instant transition process, in accordance with one or more embodiments of the present disclosure. When the SED-based computer is turned on, the pre-boot OS 225 (such as the Linux kernel OS) loads and begins running. Once the unlocking program completes authentication, as described above herein, the unlocking program needs to perform the last few steps that BIOS performs for non-SED-based systems in order to transfer control to the nominal OS. The SED management software 222, as part of the instant transition state 274 includes a re-set module that runs the BIOS. If the unlocking software program transferred control to the Windows OS, the Windows OS would react as if the control was coming from BIOS and as if the programming and state of the nominal space 210 were as BIOS left it. But upon the previous shutdown, the SED put the nominal space 210 of the PC in protected mode, as depicted in step 1300 of FIG. 13. If the unlocking program transferred control directly to the Windows OS, the Windows OS would not react properly. Instead, as depicted in step 1310, the re-set module saves the state of the nominal OS in memory before the pre-boot OS begins, instructs the pre-boot OS not to touch those memory locations where the state of the nominal OS is stored. As depicted in step 1320, control is transferred from BIOS to the pre-boot OS for the authentication process. After a successful authentication process and after the unlocking process is complete, as depicted in step 1330, the re-set module re-programs the system back to state BIOS left it in. This allows a smooth transfer from one OS to another.

As depicted in FIG. 2 and discussed above, in accordance with one or more embodiments of the present disclosure, the sleep mode controls 276 of the present disclosure, involve the states that a computer can be put into. A user enrolls the first time the SED management software 222 is used and uses the SED management software 222 to unlock the nominal space 210 on the SED every time the user boots up. State S0 means everything on the computer is on. In state S1, the CPU is idle, but everything else on the computer is on and running. In state S2, the CPU is in an Idle state, but some of the other devices, such as USB ports, may have been powered down.

When the user is finished with working on the PC, the user may turn off the computer; this is known as “state S5.” When the user turns the computer off in S5, all devices on the computer are turned off. When user powers on, machine has to go through the whole boot up process: all applications have to be re-started and all devices have to be initialized. As alternatives to turning the personal computer off, the user may put the personal computer into a Sleep mode state S3 or may put the machine into Hibernate mode state S4.

In Sleep mode state S3, the computer memory is on. The CPU is also on but in a “Halt state,” using minimal power. Because of the minimal power usage, the computer may stay in Sleep mode S3 state for a long time until battery is depleted.

In Hibernate mode state S4, the computer memory and the CPU are both off, so waking up the computer again is almost the same as staring a computer which has been turned off. In the Hibernate mode S4, whole memory is copied to a file in SED, then the whole computer is turned off. Accordingly, the Hibernate mode state S4 requires a long time to save the memory before shutting down and a long time to boot up. It also takes a long time to restore the RAM memory, which may be accomplished by placing the saved data back into RAM memory when computer is turned on. Computer can stay in the Hibernate mode state S4 indefinitely because no power is consumed.

It is a normal operation to start an SED-based computer from an S5 state to an S0 state. To do so, the boot-up process proceeds as previously described herein, with the BIOS transferring control to the pre-boot OS for authentication and unlocking and the SED management software 222 transferring control back to the Windows OS. To start a computer from the Hibernate mode state S4 is straightforward as the state of machine is saved on the SED. When computer comes out of the Hibernate, the BIOS restarts POST and at end of POST, transfers control to the pre-boot OS, which goes through authentication and unlocking process. The re-set module passes control to Windows OS. The Windows OS understands that it is resuming from Hibernate and retrieves the state of the machine which was saved on the SED.

When the CPU is running a code sequence and the user puts the computer into Sleep mode state S3, the CPU turns off power to SED, but does not power off other devices, the memory (such as the RAM memory) or the CPU itself. The CPU halts on one instruction in the sequence of code it was running, placing the computer into Sleep mode state S3. When the user pushes a button to turn computer back on from Sleep mode state S3, this forces an interruption on CPU. In a non-SED-based computer, when the CPU receives the interruption and turns devices such as SED and so on back on, CPU then returns to instruction it was executing in the sequence of code and starts executing again.

But this may create a problem in an SED-based computer because when the SED-based computer is turned on, the SED goes back to starting from the pre-boot area, preparatory to starting the authentication process. The nominal space is not visible. CPU is expecting to return to instruction it was executing, but that code is in the locked nominal space. So the CPU gets garbage or error, which will likely cause the PC to crash.

To prevent this situation, the nominal space would have to be unlocked to allow the CPU to read from the nominal space and return to the code sequence it was executing before entering the Sleep mode state S3. The CPU cannot ask the user for the SED username or password needed to unlock SED. The pre-boot cannot ask the user for the username and the password from the Sleep mode state S3 because the first read that the CPU will attempt from the SED will crash the system as only thing visible in SED is unlock area and SED is locked.

To address this problem created by using the Sleep mode state S3 with an SED-based computer, in one or more embodiments of the present disclosure, the SED software management system 222 may include one or more of the sleep mode controls 276. In one or more embodiments of the present disclosure, the SED software management system 222 includes a low level sleep alert device driver. FIG. 14 is a flowchart for a process of sleep mode control in accordance with one or more embodiments of the present disclosure. When going into Sleep mode state S3, the CPU tells all devices that the computer is going into Sleep mode state S3. When the CPU comes out of Sleep mode state S3, the CPU tells all devices that the computer is coming out of Sleep mode state S3. Referring to FIG. 14, in step 1400, when the sleep alert device driver receives the signal from the CPU that the computer is going into Sleep mode state S3, the sleep alert device driver saves an Administrator SED password into memory. In step 1410, prompted by the CPU alert that the computer is coming out of Sleep mode state S3, the sleep alert device driver retrieves the Administrator SED password from memory and sends to the Administrator password to the SED to unlock the nominal space and transfer control to the nominal OS, such as a Windows OS. In step 1420, he user is asked to submit the user's nominal credentials of username and password and once authenticated by the nominal OS, the computer returns to a full on state S0.

Alternatively, if the operation of saving the unlock Administrator password into memory is considered a security risk, sleep mode controls 276 may include disabling the Sleep mode state S3 using the SED Management console 300, which is discussed in more detail below. Alternatively, in accordance with one or more embodiments of the present disclosure, the Sleep mode state S3 may be disabled, and if the user selects the Sleep mode state S3, the computer instead goes into the Hibernate mode state S4.

Referring again to FIG. 2, the presence on the pre-boot OS 225 and the pre-boot libraries 230 in the pre-boot region 220 allows for one or more additional pre-boot functionalities 236 which may be used by a user while the nominal space 210 is in the locked position. The pre-boot functionalities 236 may include a pre-boot erase functionality 238, a pre-boot back-up functionality 240, a pre-boot presentation functionality 242, a pre-boot browsing functionality 244, a pre-boot communications functionality 246, a pre-boot entertainment functionality 248 and other pre-boot functionality 260, are included. In accordance with one or more embodiments of the present disclosure, while in Windows environment, the user may press a button on the keyboard and PC will be switched into the pre-boot region 220 of the SED, with the pre-boot OS 225 running to access pre-boot functionality 236. This approach may expose a hole in that hacker can get into unlock portion of HD. In alternative approaches, the user shuts down the computer or enters the Hibernate mode state S4, boots into the pre-boot OS 225 to use the pre-boot functionalities 236. The pre-boot OS 225 may be programmed to turn on hardware as needed, which may make the pre-boot functionality 236 power efficient. If the computer has been turned off, the user just has to open laptop and turn on the computer. The user does not have to boot up the OS for the nominal space 210, such as Windows OS.

As depicted in FIG. 2 and discussed above, in accordance with one or more embodiments of the present disclosure, the pre-boot erase functionality 238 implements the SED management software 222 cryptographic erase in the pre-boot region 220. Using the SED management console 300, the Administrator may send an erase command to the pre-boot region 220 of the SED. The erase command wipes out the encryption keys/passwords from the pre-boot region 220 of the SED. Without the passwords, the nominal space 210 of the SED cannot be decrypted. This feature may also be disabled by the Administrator for all client personal computers.

As depicted in FIG. 2 and discussed above, in accordance with one or more embodiments of the present disclosure, the pre-boot back-up functionality 240 may backup the Windows OS nominal space 210 onto a USB HD drive. FIG. 15 depicts a flowchart for a back-up process for use in an enterprise setting, in accordance with one or more embodiments of the present disclosure. Referring to step 1500 in FIG. 15, in some embodiments of the present disclosure used for enterprise applications, a server, such as a back-end server is connected to a plurality of SED-based PC's. The number of SED-based PC's connected to the backend server may be a thousand or more. In step 1510, the backend server detects when a connected SED-based PC has gone into the Hibernate mode state S4. In step 1510, the backend server may power up the SED-based PC to bring the SED-based PC out of the Hibernate mode state S4, and sends the SED password to the unlocking program 231 on the SED management software 222 installed on the SED-based PC to boot-up the SED-based PC. Powering up the PC and sending the SED password to the unlocking program 231 may be performed remotely by the back-end server. In step 1530, the backend server performs a backup of the nominal space 210 on the SED-based PC and returns the SED-based PC to the Hibernate mode state S4, so the user can start the SED-based PC back up when the user is ready to resume work.

In accordance with one or more embodiments of the present disclosure, a pre-boot browsing functionality 244 permits accessing the Internet and browsing when the nominal space 210 of the computer is locked. To accomplish the pre-browsing functionality 244, a browser operable with the pre-boot OS 225 is included in and is accessible from the pre-boot region 220. Because the user is browsing with the nominal space 210 (where actual programs and data are located) locked, malware and viruses which may be present on websites cannot infect actual data. The pre-boot region 220 is read only, so it too cannot be damaged. If one has a laptop in the car, the user may be able to use GPS on an SED-based laptop computer, using the pre-boot OS 225.

The use of the SED management software 222 with the pre-boot OS 225 and pre-boot functionality 236 is not limited to PC's. One could load SED management software 222 with the pre-boot OS 225 and pre-boot functionality 236 onto other drives such as Netbooks, e-books, mobile telephones, notebooks or other portable devices. In one or more embodiments of the present disclosure, the drive may be made read-only or partition a sector outside of the pre-boot region for read/write space.

As depicted in FIG. 2 and discussed above, in accordance with one or more embodiments of the present disclosure, for the pre-boot presentation functionality 242, a user may complete a presentation in the Windows environment, for example in Windows PowerPoint®, on the nominal space 210 in the SED. In one of more embodiments of the present disclosure, the user may right-click on the document to send the document to the pre-boot region 220. The computer may be put into a Hibernated mode state S4. When the user arrives at a meeting, the user can turn on the computer. The BIOS brings up the pre-boot OS 225 and unlocking program. The presentation document will also appear on the screen and one may begin the presentation using the pre-boot OS 225, without unlocking the nominal drive or exposing the Windows environment. When the user boots into Windows OS, the user has the ability to communicate and move data from Windows OS into pre-boot region 220 and the reverse. The documents which can be so moved are not limited to presentations. Other files and data, such as documents written in with word processing programs or spreadsheets or other useful documentation and data could also be moved and used in the pre-boot region 220 with the pre-boot OS 225.

As depicted in FIG. 2 and discussed above, in accordance with one or more embodiments of the present disclosure, the pre-boot communications functionality 246 may include communications such as e-mail, instant messaging and text available via the pre-boot region. The appropriate programming, which can work with the pre-boot OS 225, is loaded in the pre-boot region 220. As with the pre-boot browsing functionality 244, to access the pre-boot communications functionality 246, the user opens the lid of laptop PC. Without unlocking the nominal space 210 or booting up the Windows OS, the user can access an e-mail client or other communications program. In order to maintain access to e-mails that the user has access to in the Windows OS, the PST in Outlook may be copied into the pre-boot OS 225, so the user is opening the same PST file both in the pre-boot region 220 and in the Windows OS.

If a user using e-mail in the Windows OS and receives an e-mail with a questionable attachment, the user could put the computer in Hibernate mode state S4, turn the computer back on, boot into the pre-boot region 220 and open the e-mail. The user may open the e-mail in safety because the nominal space 210 of the SED is locked and the pre-boot region 220 is read only. The pre-boot communications functionality 246 also has low power requirements and so may promote a longer battery life because only the required devices are powered up. If one is checking e-mail, one does not require a CD-ROM player to be powered up along with a webcam or many other devices.

As depicted in FIG. 2 and discussed above, in accordance with one or more embodiments of the present disclosure, the pre-boot entertainment functionality 248 may include the use of an appropriate set of pre-boot libraries 230. Entertainment such as movies, games and music may be accessed on the pre-boot region 220 of the SED. A parent on an airplane may allow a child to use a PC to watch a movie with confidence using the pre-boot entertainment functionality 248 because the nominal space 210 is locked and the child cannot accidently delete important data.

Depicted in FIG. 2 and discussed above, in accordance with one or more embodiments of the present disclosure, the access management functionality 232 may include several features. FIG. 3 depicts several features of the access management functionality 232, which may be included in accordance with one or more embodiments of the present disclosure. The features depicted in FIG. 3 include an SED management console 300, providing access 304 up to four users plus an Administrator in compliance with OPAL standard, an additional user utility 305, remote enrollment 306, password mapping 308, identity management and single sign on (“SSO”) 310, emergency logon 312, synchronizing 314 pre-boot authentication with authentication for the nominal OS such as Windows, an easy to use pre-boot GUI 316, pre-boot keyboard functions 318, supplemental encryption 320, customized supplemental access 322, and a roaming profile 324. Some of these features (“enterprise features”) are designed for enterprise operations, such as businesses, governmental entities, non-profit organizations, or any situation, where more than one user may require routinely access to the same personal computer. But enterprise features may also be useful in schools or university settings, and in family situations where computers are shared or in any situation where more than one user require access to a personal computer. The SED management software 222 includes activating an SED encryption feature and interacting with a user through a pre-boot GUI 316, described in more detail below and which facilitates a process of the user inputting information regarding domains, usernames, passwords and/or authentication, such as fingerprint data into pre-boot region 220.

Depicted in FIG. 3 and discussed above, in accordance with one or more embodiments of the present disclosure, the SED management console 300 is an enterprise feature which may be included in the access management functionality 232 in accordance with one or more embodiments of the present disclosure. The SED management console 300 may be used to activate encryption for the SED-based personal computer and can facilitate managing multiple users of an SED-based personal computer in various ways. The encryption activation process may include downloading the SED management software 222, the pre-boot OS 225 and an unlocking program 231 into the pre-boot region 220. Although the pre-boot region 220 is read only, the download may be accomplished by inclusion, in the SED management software 222, of an administrative pin, which unlocks the pre-boot region to allow the download. Alternatively, the SED management software 222, the pre-boot OS 225 and the unlocking program 231 may be pre-installed on the pre-boot region 220, for example before the SED is sold to a customer. In accordance with some other embodiments of the present disclosure, hardware implementations of the software and systems described for real time functions are described. Real time implementations of the SED software and system embodiments of the present disclosure may be used to secure a Smart Phone, navigation device, or any other real time system in which a hard disc drive or solid state drive is present.

Non SED-based management consoles do not enroll users for SED-based encryption and do not activate encryption. The SED-based management console 300, in accordance with one or more embodiments of the present disclosure, enrolls users for SED-based encryption and activates encryption. This functionality may be useful for enterprise applications, such as for use by businesses and governmental entities. With the SED management console 300, the first user is designated an Administrator. In enterprise functions having a server, the SED management console 300 is on the server side, so that the Administrator, who may be, for example, an IT manager, can see and use the SED management console 300.

In one or more embodiments of the present disclosure, the operation of the SED management console 300 complies with the OPAL standard. The SED management console 300 may be configured to comply with other or future standards. The OPAL standard allows for up to four users, in addition to the Administrator. The Usernames and passwords of the four additional users may be represented as U1P1 to U4P4, where “U1” stands for the first additional user's username (which may also include the first additional user's domain, such as in the format “domain/username) and “P1” stands for the password of the first additional user. The Administrator can designate other users as administrators or as non-administrative users. Referring to FIG. 3, in addition to the username of the Administrator, using the SED management console 300, the Administrator may provide access 304 to Y number of additional users, where Y is a whole number between one and four, each with an individual username. This is discussed in greater detail below.

Using the SED management console 300, the Administrator can partition the nominal space 210 on the SED to customize access. FIG. 8 is a flowchart for a process to use the SED management console to customize user access, in accordance with one or more embodiments of the present disclosure. Referring to FIG. 8, the SED management software 222 includes a methodology providing, in step 800, for four OPAL non-Administrator users, each having one of the profile “buckets” U1P1, U2P2, U3P3, or U4P4. Using the SED management console 300, as depicted in step 810, the Administrator may divide the personal computer's nominal space 210 into two or more partitions. Using the SED management console 300, the Administrator can setup a profile for each bucket representing a user and determine 820 whether that user has read/write or read or no access to each partition. For example, the Administrator may divide the personal computer's nominal space 210 into four partitions, one for each user, with one or more partitions containing read only data and one or more other partitions containing read-write space. In that case, the Administrator may have access to all four partitions, while the other users each have access to a single partition of the SED. Or, for example, the personal computer could be set up so that the password of the Administrator may allow read/write access across the entire SED, while the non-administrator users only have read access. These examples are meant to be illustrative, not limiting. The Administrator using the SED management console 300 may configure each user's access to be specific to that user.

Compliance with security policies are important for operations of an enterprise, such as a business or governmental entity. For example, a user of a SED-based personal computer, who is an employee of a business, may fail to comply with a security policy of the business if he does not enroll into the SED management software 222 system. In such a case, the Administrator may enroll the user, remotely if necessary. In a remote enrollment process 306, in accordance with one or more embodiments of the present disclosure, the Administrator may enroll the user using the SED management console 300. When the user next turns on the personal computer, the SED management software 222 system will require the user to enter a username and password or other authentication.

As another example of how the Administrator may use the SED management console 300 to control and enforce policy, the SED management console 300 may be used to require that users are able to log on with just a password, or with just a fingerprint or may log on only with both a correct password and fingerprint or other authentication. The Administrator may specify different policies for each client machine.

The Administrator may also configure the SED management console 300 so that another user cannot make changes to the control panel, because the SED management console 300 plugs into an active directory of the personal computer. The SED management console 300 can be run by domain administrators who can modify all the settings for the users and machines but regular domain users do not have permission to modify the settings. The regular domain users will not be able to see the users and machines objects in the console unless the domain admin or SED super user (one who installed the SED database during installation) gives exclusive permission to the regular domain user to manage other users.

The Administrator may pre-set all values on the SED management console 300. The Administrator may also use the SED management console 300 to revoke a user's credentials so the user will no longer be able to log onto and will not be able to use the personal computer. The Administrator can also erase a user's drive using the SED management console 300. In addition, the Administrator also has the ability to add other functionality into the pre-boot region 220.

As mentioned above, a problem that may occur with SED-based personal computers is that each user may have two sets of usernames and passwords to remember for each computer, with one set of username and password being used for the Windows (or other) OS used in the nominal space 210 and a second set of username and password being used for the SED encryption. Thus, where the Administrator has set up additional users, the computer may be used by five users having a total of ten usernames and ten passwords. But the access management functionality 232 of the SED management software 222 may include a password mapping functionality 308.

Depicted in FIG. 3 and discussed above, in accordance with one or more embodiments of the present disclosure, the access management functionality 232 may include password mapping. 308. As mentioned above, a problem that may occur with SED-based personal computers is that each user has to remember his username and password for the windows (or other) OS used in the nominal space 210 and also a PIN number or password to unlock the SED drive. Also, since the SED drive only allows for four users and one administrator, the number of users that may unlock an SED drive is normally limited to five people. However, it may be desired to configure more users to have the ability to unlock a particular SED drive in a computer. Accordingly, as depicted in FIG. 3 and discussed above, in accordance with one or more embodiments of the present disclosure, the access management functionality 232 of the SED management software 222 may include a password mapping functionality 308 which will give the ability to allow an unlimited number of users to unlock the SED drive. These users can use their username and password for their Windows (or other) OS to unlock the drive, thus removing the need to remember yet another additional password or PIN number to unlock the SED drive.

FIG. 4 is a flowchart for a password mapping process 400 to achieve, in accordance with one or more embodiments of the present disclosure, the password mapping functionality 308, for the administrator a pre-set number of users of an SED-based computer. Currently, standards such as the OPAL standard set the number of SED credentials which are available. In step 410, the SED management software 222 asks the user for his or her nominal credentials. If the nominal OS is Windows, this would be the user's Windows username and password. (The username may include the user's domain. In one or more embodiments of the present disclosure, the user may be asked for and need to separately enter the domain name, as well as his username and password.) Step 410 may be done when registering the user or at a later time. The user supplies the nominal credentials, which are received by the SED management software 222. In step 415, the SED management software 222 generates a driver session key (DSK) and uses the DSK to encrypt the SED credential of a user. (The SED credential encrypted might be the SED credential of that user or any SED credential for the SED-based computer). In step 420, the SED management software 222 makes a hash of the user's nominal credentials and uses the hash to encrypt the DSK. In step 425, the computer is shut down and encryption is activated. When the user starts up the computer, the SED management software 222 asks for the user's nominal credentials in step 430. The user enters her nominal credentials, which are received by the SED management software 222 as entered. In step 435, the SED management software 222 hashes the user's nominal credentials and uses the hashed nominal credentials to attempt to decrypt the user's version of the encrypted DSK. In step 440, the SED management software 222 uses the decrypted DSK to decrypt the SED credential. What happens next is determined 450 by whether the nominal credentials were entered correctly. The SED management software 222 cannot find the encrypted DSK if the nominal username was not entered correctly and cannot decrypt the encrypted DSK if the user's nominal credentials were not entered correctly A wrongly decrypted DSK would not decrypt the encrypted SED credential. If the log in is not successful, in step 455, the SED management software 222 gives the user another chance to enter the nominal credentials correctly. The SED management software 222 may give the user a predetermined number of chances to enter the nominal credentials correctly, but after a predetermined number of failures, the computer may be locked. If the nominal credentials were entered correctly, the SED management software 222 succeeds using the hashed nominal credentials to decrypt the user's SED password. The decrypted SED password is sent to the SED to decrypt and unlock the nominal portion of the SED. Each user only has to remember one password, the Windows password, not two.

The password mapping functionality 308 of the present disclosure is not limited to passwords. Other means of user authentication used with the Windows OS such as fingerprints, other biometrics or smart cards can be mapped to the SED password. For example, the SED management software 222 can use the user's Windows fingerprint to seal the SED password and to release the SED password when the appropriate finger having the correct fingerprint is swiped across a reader. The user who already had a fingerprint for the Windows OS on file would not have to enroll a fingerprint in order to use a fingerprint as authentication for the SED. In addition, the mapping may be accomplished in a number of ways, in various embodiments of the present disclosure, both with and without the use of a driver session keys.

Depicted in FIG. 3 and discussed above, in accordance with one or more embodiments of the present disclosure, the access management functionality 232 may include the additional user utility 305. If a single SED-based personal computer has more than the number of users (plus an Administrator) allowed by a standard, such as the OPAL standard requiring access to it, the SED management software 222 includes the additional user utility 305 which can add additional users, in accordance with one or more embodiments of the present disclosure. FIG. 9 is a flowchart for a process of adding additional users, in accordance with one or more embodiments of the present disclosure. The additional user utility 305 allows the addition of Z number of additional users each having a username, and a password (or other forms of authentication) and if appropriate, a domain, which may be included as part of the username. Z is a whole number. The session key may be encrypted with passwords and usernames (which may include the user's domain) of Z number of additional users, as further described in the next paragraph.

For example, referring to FIG. 9, in one or more embodiments of the present disclosure, in step 900, the additional user utility 305 retrieves the SED credential (generally a pin or password) of the an authorized user, such as the administrator, and randomly generates a driver session key. In step 910, the additional user utility encrypts the SED credential with the driver session key and stores the encrypted SED credential in the pre-boot region. In step 915, the additional user utility creates a hash for each of the Z additional users formed from the user's nominal credentials and uses each hash to create an encrypted version of the driver session key, yielding an encrypted version of the driver session key for each of the Z additional users, for a total of Z encrypted versions of the driver session key. The Z encrypted versions of the driver session key are stored in the pre-boot region. (The additional users enter their Windows usernames and password (and/or provide other authentication). As depicted in step 920, the additional user utility 305 may hash the user's nominal credentials as entered and use the hash to attempt to decrypt the driver session key and, of successful will use the decrypted driver session key to decrypt the encrypted SED credential in the pre-boot region. Once decrypted, the SED credential is sent to the SED, which decrypts and unlocks the nominal space. As with other users, after a pre-determined number of failures to enter the user's nominal credentials, the user may be locked out.

The Administrator may unlock the SED by entering her Windows username and password. If a second user is supposed to use the same SED, the additional user utility 305 encrypts the generated SED password number, a number like “75982” for example, with a hash of the additional user's Windows password username and domain name. When either the Administrator or the new user logs on with their Windows credentials, the SED management software 222 determines the user, and hashes the entered credentials to use them to decrypt SED password number 75982. Once decrypted, the SED password number is used by the unlocking system to unlock the nominal side 210 of the SED.

As an example of a process for the additional user utility 305 in accordance with one or more embodiments of the present disclosure, during activation, the Administrator may use her username to generate a random Administrator password number such as “75982,” which can be used with the Administrator's SED username to unlock the SED. The generated SED password number 75982 is not stored anywhere as is. Instead, it is encrypted with a hash of the Administrator's Windows password (or other forms of authentication). Once encrypted, the generated SED password is stored in the OS (such as Windows OS) of the nominal space 210 of the SED. An authorized user, such as the Administrator, must use his credentials to unlock the SED, boot to the nominal OS (such as Windows OS), know where the encrypted generated SED password is stored, and hash the additional user's username, password and domain to encrypt the generated SED password. Then when the additional user logs in with her Windows' credentials, the SED management software 222 determines the user, and hashes the entered credentials to use them to decrypt SED password number 75982. Once decrypted, the SED password number is used by the unlocking system to unlock the nominal side 210 of the SED.

Depicted in FIG. 3 and discussed above, in accordance with one or more embodiments of the present disclosure, the access management functionality 232 may include the emergency logon functionality 312. FIGS. 5 a and 5 b are flowcharts for the emergency logon functionality 312, in accordance with one or more embodiments of the present disclosure. A flowchart for an Administrator assisted emergency logon process is depicted in FIG. 5 a. A flowchart for an emergency logon process without Administrator assistance is depicted in FIG. 5 b. Referring to FIG. 5 a, if a user cannot get access to the personal computer because he has forgotten his username or password, or if his fingerprint is not working, the Administrator may re-set the username and password using the emergency logon functionality 312, which may be implemented, for example, in the pre-boot region 220 using the pre-boot OS and as part of the PBA process and the SED management software 222. In step 505, the emergency logon functionality 312 provides the user with a challenge code when he cannot log in. In step 510, the user communicates the challenge code to the Administrator, who enters the challenge code, on the server side, in the SED Management console 300. The emergency logon functionality 312, which may comprise a utility on the SED management software 222, responds in step 515, with a response code, which the Administrator communicates to the user in step 520. The user enters the response code on the client side in step 525 and the response code allows the unlock program to unlock the nominal space 210 of the personal computer in step 530. The user will be required to select a new password in step 535.

Referring to FIG. 5 b, the user may be able to use an emergency logon functionality 312 to obtain access without an Administrator. This is particularly useful if the computer is used at home and is not associated with a corporate Administrator. When the user enrolls in the SED management software 222 (or at a later time but before the user gets locked out of the personal computer), in step 550, the user may activate the emergency login functionality 312 by selecting three questions and supplying answers to each of the three questions. If at a later time, the user cannot log in, in step 555, the log in failure will prompt the computer to display button with a “cannot log in” message or a message to like effect. If the user clicks on the button, in step 560, the emergency logon functionality 312 will be prompted to display, and require the user to correctly answer, at least one of the questions previously selected by the user. If the user supplies the correct answer(s), in step 565, the SED management software will allow the unlock program to unlock the nominal space 210 of the personal computer. In step 570, the SED management software 222 requires that the user select a new password.

Depicted in FIG. 3 and discussed above, in accordance with one or more embodiments of the present disclosure, the access management functionality 232 may include the identity management and Single Sign On (SSO) functionality 310, which has particular application in enterprise applications. The Administrator may use her password to unlock an SED and make the Shadow MBR in the pre-boot authentication environment in the pre-boot sector a read/write area. When a user of SED-based computer turns the computer on and provides authentication, the unlocking program decrypts the nominal space 210. Normally, the operating system for the nominal space 210, such as Windows, will require the user to enter his Windows username, domain and password. The SED management software 222 uses a communication protocol with core components of the Windows operating system to verify the level of authentication used by the user at the Pre-Boot Authentication (PBA) and if the level of authentication meets policy requirements, allows the user access through the Windows OS to all information on the nominal space 210 on the personal computer (or the partitions of the nominal space that the specific user is allowed to see), as well as full access to the enterprises security levels appropriate for that user.

A block diagram representing an architecture in accordance with one of more embodiments of the present disclosure on the server side is depicted in FIG. 6. A centralized management 610 includes the SED management console 300 and likely includes other, third party consoles 615. If Windows is the OS, the Windows core components 620 may comprise a core authentication interface 622, a connector 624, such as a Lightweight Directory Access Protocol (“LDAP”) Active Directory (“AD”), and server management Application Program Interface/User Interface (“API/UI”) 626. API's allow software programs to interact with an operating system; user interfaces allow users to interact with a computer. The server hardware 630 may include an Active Directory server 635, such as an LDAP active directory server. The LDAP/AD connector 624 allows the Windows core components 620 to access the Active Directory server 635. The SED management console 300 manages the SED client (not depicted in FIG. 6). The SED management console 300 and third party consoles 615 communicate with the server management API/UI 626.

A block diagram representing an architecture in accordance with one of more embodiments of the present disclosure on the client side is depicted in FIG. 7. User interface components in the Windows environment on the client side may include a credentials provider 710, a control panel user interface enrollment 712, and a file folder encryption engine 714. The credential provider 710, which may be, for example, a Graphical Identification and Authentication (GINA) credential provider, allows for single sign on into a desktop and synchronization of the user's Windows credentials with a Linux-based pre-boot authentication 722 in the pre-boot environment 720. The control panel user interface enrollment 712 provides a user interface for enabling the SED, enrolling users and managing policies and settings. The file/folder encryption engine 714 is an Explorer based extension that provides file and folder encryption, the Window core components 730 include a core authentication interface 732, an SED configuration service 734, and an LDAP/AD connector 736. The authentication hardware 740 may include elements such as smart card hardware 742, tokens hardware 744, biometrics hardware 746 (such as but not limited to a fingerprint reader) and trusted platform module (“TPM”) hardware 748. The Window core components 730 provide an interface between the user level components 700, the SED 750, the authentication hardware 740, the pre-boot environment 720 and the LDAP active directory server 635. The core authentication interface 732 provides policy management support and an interface to authentication hardware 740. The core authentication interface 732 also provides communication between the pre-boot environment 720 and the Windows environment on the nominal space 210. The SED configuration service 734 provides an interface to different SED technologies such as, but not limited to, those in accordance with as OPAL. The LDAP/AD connector 736 provides infrastructure to communicate with the LDAP-based server 635 for user information and policy storage, but the LDAP/AD connector 736 could be customized and replaced to support non-LDAP databases and servers.

Depicted in FIG. 3 and discussed above, in accordance with one or more embodiments of the present disclosure, the access management functionality 232 may include the synchronizing authentication functionality 314, which synchronizes authentication of the users' nominal (such as Windows) OS credentials to credentials for the pre-boot environment used to decrypt the SED. FIG. 10 is a flowchart of a process for synchronizing nominal and pre-boot authentication, in accordance with one or more embodiments of the present disclosure. For security purposes, the users may be required to change their Windows OS passwords on a periodic basis. This is a common requirement in enterprise applications. The GINA credential provider 710 (described above) is currently used as the login component of Windows. The GINA credential provider 710 is included in the discussion below as an example of a credential provider for a nominal OS, but the present disclosure includes use of any credential provider suitable for use with a nominal operating system. Referring to step 1000 of FIG. 10, in one or more embodiments of the present disclosure, the SED management software 222 includes a hook for a credential provider, such as a GINA hook which allows GINA credential provider 710 to alert (in step 1000 of FIG. 10) the SED management software when a user's nominal password is being changed. In step 1010, the SED management software 222 takes the user's nominal username (which may include the user's domain if appropriate) and the user's old nominal password and creates a hash, using the hash to decrypt the user's SED password (such as an OPAL password). In step 1020, the SED management software 222 then creates a second hash of the user's nominal username and new nominal password and uses the second hash to encrypt the SED password. The next time the user logs on and enters his nominal username and the new nominal password, in step 1030, the nominal username and new nominal password as entered are hashed and are used to decrypt the SED password. If the decryption is successful, in step 1040, the SED password is sent to SED firmware so the SED can be unlocked.

Depicted in FIG. 3 and discussed above, in accordance with one or more embodiments of the present disclosure, the access management functionality 232 may include the pre-boot graphical user interface (“GUI”) 316 for authentication use, stored in the pre-boot region 220. For example, if policy or a particular user requires a fingerprint authentication, in addition to the user's username (which may include the user's domain) and password, the SED management software 222 would request the username, password and fingerprint (or other authentication) of the user upon log in through a display on the pre-boot GUI 316. With the fingerprint reader plugged in, and upon a successful reading of the user's fingerprint, the pre-boot GUI 316 will display a fingerprint on the screen of the computer screen. The pre-boot GUI 316 may similarly accommodate use of other authentication systems, such as but not limited to smart cards, used with various embodiments of the present disclosure. In accordance with some embodiments of the present disclosure, the pre-boot GUI 316 may work with many different forms of authentication hardware 740, such as but not limited to fingerprint readers, other biometric readers, tokens, TPM, or smart cards, which may be combined with each other or with passwords for a variety of multifactor authentication protocols.

Screenshots from a pre-boot GUI 316 in accordance with one or more embodiments of the present disclosure are presented in FIGS. 16-31. FIG. 16 depicts a screenshot from a pre-boot GUI for enrolling a new user, in accordance with one or more embodiments of the present disclosure. FIG. 17 a depicts a screenshot from a pre-boot GUI of a welcome page for enrolling a new user, in accordance with one or more embodiments of the present disclosure. FIG. 17 b depicts a screenshot from a pre-boot GUI for verifying authentication of a user, in accordance with one or more embodiments of the present disclosure. FIG. 17 c depicts a screenshot from a pre-boot GUI for selecting a form of authentication for enrolling a new user, in accordance with one or more embodiments of the present disclosure. FIG. 17 d depicts a screenshot from a pre-boot GUI for finishing user enrollment, in accordance with one or more embodiments of the present disclosure. FIGS. 17 e and 17 f depict screenshots from a pre-boot GUI for backing up a user profile, in accordance with one or more embodiments of the present disclosure. FIG. 18 a depicts a screenshot from a pre-boot GUI for enrolling a form of authentication a user, in accordance with one or more embodiments of the present disclosure. FIG. 18 b depicts a screenshot from a pre-boot GUI for selecting a finger from which to enroll a fingerprint, in accordance with one or more embodiments of the present disclosure. FIG. 18 c depicts a screenshot from a pre-boot GUI illustrating different fingerprint sensors, in accordance with one or more embodiments of the present disclosure. FIG. 18 d depicts a screenshot from a pre-boot GUI for acknowledging successful fingerprint enrollment, in accordance with one or more embodiments of the present disclosure. FIG. 18 d depicts a screenshot from a pre-boot GUI for acknowledging successful device enrollment, in accordance with one or more embodiments of the present disclosure FIG. 19 a depicts a screenshot from a pre-boot GUI for supplemental encryption, in accordance with one or more embodiments of the present disclosure. FIG. 19 b depicts a screenshot from a pre-boot GUI depicting encryption of a folder containing multiple files, in accordance with one or more embodiments of the present disclosure. FIG. 20 a depicts a screenshot from a pre-boot GUI depicting selection of a “Decrypt To” function, in accordance with one or more embodiments of the present disclosure. FIG. 20 b depicts a screenshot from a pre-boot GUI depicting selection of a decryption location, in accordance with one or more embodiments of the present disclosure. FIG. 21 a depicts a screenshot from a pre-boot GUI depicting selection of a “secure sharing” function, in accordance with one or more embodiments of the present disclosure. FIG. 21 b depicts a screenshot from a pre-boot GUI depicting selection of a user with whom to share encrypted data, in accordance with one or more embodiments of the present disclosure. FIG. 22 depicts icons from a pre-boot GUI illustrating a file before encryption and the file after encryption, in accordance with one or more embodiments of the present disclosure. FIG. 23 depicts a screenshot from a pre-boot GUI of a screen which may be used to begin restoring a user's profile, in accordance with one or more embodiments of the present disclosure. FIG. 24 depicts a screenshot from a pre-boot GUI of a screen used for selecting a user profile to restore, in accordance with one or more embodiments of the present disclosure. FIG. 25 depicts a screenshot from a pre-boot GUI of an SED management software control center main window, in accordance with one of more embodiments of the present disclosure. FIG. 26 depicts a screenshot from a pre-boot GUI of a screen used for selecting files to protect, in accordance with one or more embodiments of the present disclosure. FIG. 27 a depicts a screenshot from a pre-boot GUI of a screen used to change user settings, in accordance with one or more embodiments of the present disclosure. FIG. 27 b depicts a cropped screenshot from a pre-boot GUI of a screen used to change user audio settings, in accordance with one or more embodiments of the present disclosure. FIG. 27 c depicts a cropped screenshot from a pre-boot GUI of a screen used to change user authentication window settings, in accordance with one or more embodiments of the present disclosure. FIG. 27 d depicts a cropped screenshot from a pre-boot GUI of a screen used to modify file encryption settings, in accordance with one or more embodiments of the present disclosure. FIG. 27 e depicts a screenshot from a pre-boot GUI of a screen used to set authentication rules, in accordance with one or more embodiments of the present disclosure. FIG. 27 f depicts a screenshot from a pre-boot GUI of a screen used to activate emergency logon functionality, in accordance with one or more embodiments of the present disclosure. FIG. 28 a depicts a screenshot from a pre-boot GUI of a screen used to change system settings, in accordance with one or more embodiments of the present disclosure. FIG. 28 b depicts a cropped screenshot from a pre-boot GUI of a screen used to enable single sign on (SSO), in accordance with one or more embodiments of the present disclosure. FIG. 28 c depicts a cropped screenshot from a pre-boot GUI of a screen used to enable S3 standby mode, in accordance with one or more embodiments of the present disclosure. FIG. 28 d depicts a screenshot from a pre-boot GUI of a screen used for settings for an SED management software, in accordance with one or more embodiments of the present disclosure. FIG. 29 a depicts a screenshot from a pre-boot GUI of a screen used for an SED management console, in accordance with one or more embodiments of the present disclosure. FIG. 29 b depicts a screenshot from a pre-boot GUI of a screen used for an SED management console to modify fingerprint data, in accordance with one or more embodiments of the present disclosure. FIG. 30 depicts a screenshot from a pre-boot GUI of a screen used for selecting a sharing and security model for local accounts, in accordance with one or more embodiments of the present disclosure. FIG. 31 a depicts a cropped screenshot from a pre-boot GUI of a screen used to communicate login error, in accordance with one or more embodiments of the present disclosure. FIG. 31 b depicts a cropped screenshot from a pre-boot GUI of a screen used to re-confirm a user password, in accordance with one or more embodiments of the present disclosure.

The pre-boot GUI 316 may also include an easily configurable or customizable pre-boot background splash screen. One could, for example, use visual images, picturesque scenes, or a business card image as the pre-boot splash screen or could use a business card image, even though the nominal space 210 is locked. The pre-boot GUI 316 may also include a keyboard functionality 318, so that a keyboard may be present on-screen even when the nominal space 210 is encrypted. A pre-boot keyboard allows a user to customize, with, for example, a choice of language—and all text displayed on the pre-boot GUI 316 will be presented in the selected language.

Depicted in FIG. 3 and discussed above, in accordance with one or more embodiments of the present disclosure, the access management functionality 232 may include the supplemental encryption functionality 320. In addition to locking the nominal space 210 of the SED when the computer is shut down, users may use the file folder encryption engine 714 in one or more embodiments of the present disclosure to selectively encrypt individual files, folders and/or documents.

Turning now to FIG. 11, a machine 3200 that includes a BIOS component 3216, an application component and non-viewable component 3214 in accordance with one of more embodiments of the present disclosure is shown. The machine 3200 may be configured in any number of ways, including as a laptop unit, a desktop unit, a network server, mobile device, telephone, net-book, or any other configuration. Machine 3200 generally includes a central processing unit (CPU) 3202 coupled to a main memory array 3201 and to a variety of other peripheral computer system components through an integrated bridge logic device 3206. The bridge logic device 3206 is sometimes referred to as a “North bridge” for no other reason than it often is depicted at the upper end of a computer system drawing. The CPU 3202 couples to North bridge logic 3206 via a CPU bus 3254, or the bridge logic 3206 may be integrated into the CPU 3202. The CPU 3202 may comprise, for example, a Pentium™ IV microprocessor. It should be understood, however, that the machine 3200 could include other alternative types of microprocessors. Further, an embodiment of the machine 3200 may include a multiple-CPU architecture, with each processor coupled to the bridge logic unit 3206. An external cache memory unit 3204 further may couple to the CPU bus 3254 or directly to the CPU 3202.

The main memory array 3201 couples to the bridge logic unit 3206 through a memory bus 3252. The main memory 3201 functions as the working memory for the CPU 3202 and generally includes a conventional memory device or array of memory devices in which program instructions and data are stored. The main memory array 3201 may comprise any suitable type of memory such as dynamic random access memory (DRAM) or any of the various types of DRAM devices such as synchronous DRAM (SDRAM), extended data output DRAM (EDO DRAM), or Rambus™ DRAM (RDRAM). The North bridge 3206 couples the CPU 3202 and main memory 3201 to the peripheral devices in the system through a Peripheral Component Interconnect (PCI) bus 3258 or other expansion bus, such as an Extended Industry Standard Architecture (EISA) bus. The present disclosure, however, is not limited to any particular type of expansion bus, and thus various buses may be used, including a high speed (66 MHz or faster) PCI bus. Various peripheral devices that implement the PCI protocol may reside on the PCI bus 3258, as well.

The machine 3200 includes a graphics controller 3208 that couples to the bridge logic 3206 via an expansion bus 3256. As shown in FIG. 11, the expansion bus 3256 comprises an Advanced Graphics Port (AGP) bus. Alternatively, the graphics controller 3208 may couple to bridge logic 3206 through the PCI bus 3258. The graphics controller 3208 may embody a typical graphics accelerator generally known in the art to render three-dimensional data structures on display 3210. Bridge logic 3206 includes a PCI interface to permit master cycles to be transmitted and received by bridge logic 3206. The bridge logic 3206 also includes an interface for initiating and receiving cycles to and from components on the AGP bus 3256. The display 3210 comprises any suitable electronic display device upon which an image or text can be represented. A suitable display device may include, for example, a cathode ray tube (CRT), a liquid crystal display (LCD), a thin film transistor (TFT), a virtual retinal display (VRD), a touch pad, or any other type of suitable display device.

The machine 3200 may comprise a computer system and may optionally include a Personal Computer Memory Card International Association (PCMCIA) drive 3212 coupled to the PCI bus 3258. The PCMCIA drive 3212 is accessible from the outside of the machine and accepts one or more expansion cards that are housed in special PCMCIA cards, enclosures which are approximately the size of credit cards but slightly thicker. Accordingly, PCMCIA ports are particularly useful in laptop computer systems, in which space is at a premium. A PCMCIA card typically includes one connector that attaches to the PCMCIA port 3212, and additional connectors may be included for attaching cables or other devices to the card outside of the machine 3200. Accordingly, various types of PCMCIA cards are available, including modem cards, network interface cards, bus controller cards, and memory expansion cards. If other secondary expansion buses are provided in the computer system, another bridge logic device 3220 typically couples the PCI bus 3258 to that expansion bus. This bridge logic is sometimes referred to as a “South bridge,” reflecting its location vis-a-vis the North bridge in a typical computer system drawing.

In FIG. 11, the South bridge 3220 couples the PCI bus 3258 to an Industry Standard Architecture (ISA) bus 3262 and to a hard drive bus 3260. The hard drive bus 3260 typically interfaces input and output devices such as a CD ROM drive, a Digital Video Disc (DVD) drive 3258, a hard disk drive such as SED 3230, microphone and/or speaker divers 3240, camera and/or video drivers 3242, a touch pad driver 3244 and or a mouse driver 3246 in accordance with the embodiment of the disclosure shown in FIG. 11. The hard drive bus 3260 shown in FIG. 11 couples to the SED 3230, which has nominal space 3232 and a pre-boot region 3234. The pre-boot region 3234 contains an SED management system in accordance with one or more embodiments of the present disclosure. The SED management system may comprise executable software files stored in a file system of the pre-boot region 3234 of the SED 3230. The SED management system, in accordance with one or more embodiments of the present disclosure, may manage SED-based security and provide additional functionality to improve and enhance user experience of SED technology, as discussed herein.

Various ISA-compatible devices are shown coupled to the ISA bus 3262, including a BIOS ROM 3216. The BIOS ROM 3216 is a memory device that stores commands which instruct the computer how to perform basic functions such as sending video data to the display or accessing data on CDs, DVDs. hard floppy disk drives. In addition, the BIOS ROM 3216 may be used to store power management instructions for hardware-based (or “legacy”) power management systems or to store register definitions for software-based power management systems. The BIOS instructions also enable the computer to load the operating system software program into main memory during system initialization and transfer control to the operating system so the operating system can start executing, also known as the INT19 “boot” sequence. The BIOS ROM 3216 typically is a “nonvolatile” memory device, which means that the memory contents remain intact even when the machine 3200 powers down. By contrast, the contents of the main memory 3201 typically are “volatile” and thus are lost when the computer shuts down.

The South bridge 3220 supports an input/output controller 3222 that operatively couples to basic input/output devices such as a keyboard 3247, a mouse 3246, a CD/DVD drive 3258, general purpose parallel and serial ports 3248, and various input switches such as a power switch and a sleep switch (not shown). The I/O controller 3222 typically couples to the South bridge via a standard bus, shown as the ISA bus 3262 in FIG. 11. A serial bus 3264 may provide an additional connection between the I/O controller 3222 and South bridge 3220. The I/O controller 3222 typically includes an ISA bus interface (not specifically shown) and transmit and receive registers (not specifically shown) for exchanging data with the South bridge 3220 over the serial bus 3264.

In light of the principles and example embodiments described and illustrated herein, it will be recognized that the example embodiments can be modified in arrangement and detail without departing from such principles. Also, the foregoing discussion has focused on particular embodiments, but other configurations are contemplated. In particular, even though expressions such as “in one embodiment,” “in another embodiment,” or the like are used herein, these phrases are meant to generally reference embodiment possibilities, and are not intended to limit the disclosure to particular embodiment configurations. As used herein, these terms may reference the same or different embodiments that are combinable into other embodiments.

Similarly, although example processes have been described with regard to particular operations performed in a particular sequence, numerous modifications could be applied to those processes to derive numerous alternative embodiments of the present disclosure. For example, alternative embodiments may include processes that use fewer than all of the disclosed operations, processes that use additional operations, and processes in which the individual operations disclosed herein are combined, subdivided, rearranged, or otherwise altered.

This disclosure also described various benefits and advantages that may be provided by various embodiments. One, some, all, or different benefits or advantages may be provided by different embodiments.

In view of the wide variety of useful permutations that may be readily derived from the example embodiments described herein, this detailed description is intended to be illustrative only, and should not be taken as limiting the scope of the disclosure. What is claimed as the disclosure, therefore, are all implementations that come within the scope of the following claims, and all equivalents to such implementations. 

1. A system, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS, and configured to request and accept at least two forms of user authentication to unlock the nominal space of the SED, when the SED-based computer is turned on.
 2. The system of claim 1, wherein the pre-boot region is hidden from users when the nominal space is un-encrypted.
 3. A system, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS, and configured to transfer control directly to an operating system of the nominal space upon a successful authentication.
 4. The system of claim 3, wherein the pre-boot OS is Linux-based.
 5. The system of claim 3, wherein the pre-boot libraries include key entry functionality.
 6. The system of claim 3, wherein the pre-boot libraries include graphics functionality.
 7. The system of claim 3, wherein the pre-boot libraries include drivers for authentication devices.
 8. A system, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; an unlocking software program configured to work with the pre-boot OS; and an access management functionality, wherein the access management functionality is configured to providing access to the nominal space for at least one user and an Administrator.
 9. A system, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; an unlocking software program configured to work with the pre-boot OS; and an access management functionality, configured to activate encryption for the SED-based personal computer.
 10. The system of claim 9, wherein the encryption activation process includes downloading the SED management software, the pre-boot OS and an unlocking program into the pre-boot region through use of an administrative pin.
 11. The system of claim 8, wherein the first user to enroll in the SED management software as a user is designated an administrator.
 12. The system of claim 8, further comprising an access management console.
 13. The system of claim 8, wherein the SED-based computer is configured for use in an enterprise and to interact with a server, and wherein the SED management console is configured to be on the server side, accessible to an enterprise administrator.
 14. The system of claim 8, wherein the SED management console is configured to provide access to the nominal space based on entry of a user's nominal credentials.
 15. The system of claim 14, wherein the user's nominal credentials are mapped to the user's SED credential.
 16. The system of claim 15, wherein the user's nominal credentials include the domain of the user.
 17. The system of claim 15, wherein the SED management console is configured to permit the Administrator to partition the nominal space.
 18. The system of claim 15, wherein the SED management console is configured to permit the Administrator to assign access rights to at least one user to at least one partition of the nominal space.
 19. The system of claim 14, wherein the access management functionality includes an additional user utility configured to provide access to more than users than a number of available SED credentials.
 20. The system of claim 19, wherein the additional user utility is configured to generate a random driver session key (DSK), and to encrypt an available SED credential with the DSK and to encrypt the DSK with a hash made of the nominal credentials of one of the more users.
 21. The system of claim 20, wherein the additional user utility is configured to hash the nominal credentials of the one of the more users, when the one of the more users attempts to log on, is configured to use the hash to decrypt the DSK, and is configured to use the decrypted DSK to decrypt the encrypted SED credential.
 22. The system of claim 8, wherein the SED management console is configured to permit an administrator to enroll users.
 23. The system of claim 22, wherein the SED management console is configured to permit the administrator to remotely enroll users.
 24. The system of claim 8, wherein the SED management console is configured to allow an administrator to specify authentication requirements for the SED-based computer.
 25. The system of claim 8, wherein the SED management console has a control panel configured to permit interaction with an administrator.
 26. The system of claim 25, wherein the SED management console is configured to allow the administrator for to prohibit at least one user from changing the control panel.
 27. The system of claim 25, wherein the SED management console is configured to allow the administrator to pre-set all values on the SED management console.
 28. The system of claim 25, wherein the SED management console is configured to allow administrator to also use the SED management console to revoke a user's credentials.
 29. The system of claim 25, wherein the SED management console is configured to allow administrator to erase a user's drive.
 30. The system of claim 25, wherein the SED management console is configured to allow administrator to add code into the pre-boot region.
 31. The system of claim 8, wherein the SED-based computer is used in an enterprise application and the access management functionality is configured to provide single sign on functionality.
 32. The system of claim 8, wherein the access management functionality is configured to provide password mapping functionality between a user's nominal domain, nominal username and nominal password and the user's SED domains, SED username and SED password.
 33. The system of claim 8, wherein the access management functionality is configured to provide authentication mapping functionality between a user's nominal authentication and the user's SED authentication.
 34. The system of claim 31, wherein the user's nominal authentication is a fingerprint of the user.
 35. The system of claim 31, wherein the user's nominal authentication is a smart card of the user.
 36. The system of claim 8, wherein the access management functionality is configured to provide an emergency login functionality.
 37. The system of claim 36, wherein the emergency login functionality is configured to provide a user with a challenge code when a user fails to log on and is configured to unlock the SED when the challenge code is entered by an administrator.
 38. The system of claim 36, wherein the emergency login functionality is activated when a user pre-selects at least one challenge question and provides an answer to the question.\
 39. The system of claim 8, wherein the access management functionality is configured to synchronize a user's authentication between an operating system for the nominal space and the pre-boot OS.
 40. The system of claim 39, wherein the synchronizing is accomplished using a hook that allows the nominal credential provider to signal the SED management system when a user's password is being changed.
 41. The system of claim 39, wherein the SED management system is configured to respond to the alert to use the user's old password, the domain and user name to creates a hash to decrypt the SED password and the SED management system is configured to respond entry of a new password to uses a hash of the user's new password, the domain and username to encrypt the SED password, so that the SED password may be decrypted with a re-created hash of the user's new password, the domain and username.
 42. The system of claim 8, wherein the access management functionality is configured to provide a pre-boot GUI which is configured to interact with a user to request and accept at user authentication, while the nominal space is encrypted.
 43. The system of claim 42, wherein the pre-boot GUI includes a pre-boot keyboard functionality.
 44. The system of claim 43, wherein the pre-boot keyboard functionality allows for language selection.
 45. The system of claim 8, wherein the access management functionality is configured to allow a user to selectively encrypt items on the nominal space of the SED-based computer.
 46. The system of claim 45, wherein the selectively encrypted items comprise files, folders and documents.
 47. The system of claim 45, wherein the access management functionality is configured to allow a user to customize access for at least a second user to at least one of the selectively encrypted items.
 48. The system of claim 8, wherein the access management functionality includes an SED management console configured to interact with an Administrator.
 49. The system of claim 8, wherein the pre-boot OS is Linux-based.
 50. The system of claim 8, wherein the pre-boot libraries include key entry functionality.
 51. The system of claim 8, wherein the pre-boot libraries include graphics functionality.
 52. A system, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and a secure recovery functionality.
 53. A system, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS) configured to accept control from a BIOS during boot-up to for an authentication process to unlock the nominal space; at least one pre-boot library configured to support the pre-boot OS; an unlocking software program configured to work with the pre-boot OS to perform authentication to unlock the nominal space; and an instant transition state functionality.
 54. The system of claim 53, wherein the instant transaction state functionality comprises a re-set module saves the state of an OS for the nominal space in memory before the pre-boot OS begins the authentication process, instructs the pre-boot OS not to touch those memory locations where the state of the nominal OS is stored, and, after the unlocking process is complete, re-programs the system back to state BIOS left it in.
 55. A system, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and a sleep mode control functionality.
 56. The system of claim 55, wherein the SED-based computer has a central processing unit (CPU) for the nominal space and the sleep control functionality comprises a sleep alert device driver configured to receive a first signal from the CPU that the SED-based computer is going into sleep mode, configured to respond to the first signal by saving a unlock Administrator password into memory, configured to receive a second signal from the CPU that the SED-based computer is coming out of sleep mode, and configured to respond to the second signal by retrieving the administrator password from memory and sending to the Administrator password pre-boot region to unlock the SED and transfers control to the nominal OS.
 57. The system of claim 55, wherein the sleep control functionality disables the sleep mode.
 58. A system, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and at least one pre-boot functionality capable of operating when the nominal space on the SED-based computer is encrypted.
 59. The system of claim 58, wherein the at least one pre-boot functionality comprises a pre-boot erase utility.
 60. The system of claim 58, wherein the at least one pre-boot functionality comprises s a pre-boot back-up utility.
 61. The system of claim 58, wherein the at least one pre-boot functionality comprises a pre-boot work utility, wherein one can transfer an item document into the pre-boot region to be accessible when the nominal space is encrypted.
 62. The system of claim 61, wherein the transferable item is a presentation.
 63. The system of claim 61, wherein the transferable item is a word processing document.
 64. The system of claim 61, wherein the transferable item is a spreadsheet.
 65. The system of claim 58, wherein the pre-boot region includes a pre-boot browser and the pre-boot functionality comprises pre-boot browsing.
 66. The system of claim 58, wherein the pre-boot region further comprises at least one pre-boot entertainment library and the pre-boot functionality comprises pre-boot entertainment.
 67. The system of claim 58, wherein the pre-boot library comprises at least one segment and the at least one pre-boot functionality comprises pre-boot communication.
 68. The system of claim 67, wherein the pre-boot communication comprises e-mail.
 69. The system of claim 67, wherein the pre-boot communication comprises instant messaging.
 70. The system of claim 67, wherein the pre-boot communication comprises voice communications.
 71. The system of claim 67, wherein the pre-boot communication comprises video communications.
 72. An apparatus, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); and an unlocking software program configured to work with the pre-boot OS, and configured to request and accept two or more forms of user identification to unlock the nominal space of the SED, when the SED-based computer is turned on.
 73. The apparatus of claim 72, wherein the pre-boot region is hidden from users when the nominal space is un-encrypted.
 74. An apparatus, comprising: a self-encrypting drive (SED) management software configured to be loaded in a non-volatile memory in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management software comprising: a pre-boot graphical user interface configured to interact with a user during a pre-boot authentication process; a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS, and configured to transfer control directly to an operating system of the nominal space upon completion of a successful pre-boot authentication process.
 75. The apparatus of claim 74, wherein the pre-boot OS is Linux-based.
 76. The apparatus of claim 74, wherein the pre-boot libraries include key entry functionality.
 77. The apparatus of claim 74, wherein the pre-boot libraries include graphics functionality.
 78. The apparatus of claim 74, wherein the pre-boot libraries include drivers for authentication devices.
 79. An apparatus, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; an unlocking software program configured to work with the pre-boot OS; and an access management functionality, wherein the access management functionality is configured to providing access to the nominal space for at least one user and an Administrator.
 80. An apparatus, comprising: a self-encrypting drive (SED) management system configured to be in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; an unlocking software program configured to work with the pre-boot OS; and an access management functionality, configured to activate encryption for the SED-based personal computer.
 81. The apparatus of claim 80, wherein the encryption activation process includes downloading the SED management software 222, the pre-boot OS 225 and an unlocking program into the pre-boot region 220 through use of an administrative pin.
 82. The apparatus of claim 79, wherein the first user to enroll in the SED management software as a user is designated an administrator.
 83. The apparatus of claim 79, further comprising an access management console.
 84. The apparatus of claim 79, wherein the SED-based computer is configured for use in an enterprise and to interact with a server, and wherein the SED management console is configured to be on the server side, accessible to an enterprise administrator.
 85. The apparatus of claim 79, wherein the SED management console is configured to provide access to the nominal space for four users and an administrator.
 86. The apparatus of claim 85, wherein the usernames and passwords of the four additional users may be represented as U1P1 to U4P4, where numbers stand for the users, “U” stands for username, and P stands for password.
 87. The apparatus of claim 86, wherein the username includes the domain of the user.
 88. The apparatus of claim 86, wherein the SED management console is configured to permit the Administrator to partition the nominal space.
 89. The apparatus of claim 88, wherein the SED management console is configured to permit the Administrator to assign access rights to at least one user to at least one partition of the nominal space.
 90. The apparatus of claim 79, wherein the access management functionality includes an additional user utility configured to provide access to more than four users and an Administrator.
 91. The apparatus of claim 90, wherein the additional user utility is configured to create a random password and encrypts the random password with a hash made of an additional user's domain, username and password.
 92. The apparatus of claim 91, wherein the additional user utility is configured to re-create the hash when the additional user enters the additional user's domain, username and password in an attempt to log on and the additional user utility is configured to use the re-created hash to decrypts the random password and to use the random password to unlock the SED.
 93. The apparatus of claim 79, wherein the SED management console is configured to permit an administrator to enroll users.
 94. The apparatus of claim 93, wherein the SED management console is configured to permit the administrator to remotely enroll users.
 95. The apparatus of claim 79, wherein the SED management console is configured to allow an administrator to specify authentication requirements for the SED-based computer.
 96. The apparatus of claim 79, wherein the SED management console has a control panel configured to permit interaction with an administrator.
 97. The apparatus of claim 96, wherein the SED management console is configured to allow the administrator for to prohibit at least one user from changing the control panel.
 98. The apparatus of claim 96, wherein the SED management console is configured to allow the administrator to pre-set all values on the SED management console.
 99. The apparatus of claim 96, wherein the SED management console is configured to allow administrator to also use the SED management console to revoke a user's credentials.
 100. The apparatus of claim 96, wherein the SED management console is configured to allow administrator to erase a user's drive.
 101. The apparatus of claim 96, wherein the SED management console is configured to allow administrator to add code into the pre-boot region.
 102. The apparatus of claim 79, wherein the SED-based computer is used in an enterprise application and the access management functionality is configured to provide single sign on functionality.
 103. The apparatus of claim 79, wherein the access management functionality is configured to provide password mapping functionality between a user's nominal domain, nominal username and nominal password and the user's SED domains, SED username and SED password.
 104. The apparatus of claim 79, wherein the access management functionality is configured to provide authentication mapping functionality between a user's nominal authentication and the user's SED authentication.
 105. The apparatus of claim 104, wherein the user's nominal authentication is a fingerprint of the user.
 106. The apparatus of claim 104, wherein the user's nominal authentication is a smart card of the user.
 107. The apparatus of claim 79, wherein the access management functionality is configured to provide an emergency login functionality.
 108. The apparatus of claim 108, wherein the emergency login functionality is configured to provide a user with a challenge code when a user fails to log on and is configured to unlock the SED when the challenge code is entered by an administrator.
 109. The apparatus of claim 108, wherein the emergency login functionality is activated when a user pre-selects at least one challenge question and provides an answer to the question.
 110. The apparatus of claim 79, wherein the access management functionality is configured to synchronize a user's authentication between an operating system for the nominal space and the pre-boot OS.
 111. The apparatus of claim 110, wherein the synchronizing is accomplished using a hook that allows the nominal credential provider to signal the SED management system when a user's password is being changed.
 112. The apparatus of claim 111, wherein the SED management system is configured to respond to the alert to use the user's old password, the domain and user name to creates a hash to decrypt the SED password and the SED management system is configured to respond entry of a new password to uses a hash of the user's new password, the domain and username to encrypt the SED password, so that the SED password may be decrypted with a re-created hash of the user's new password, the domain and username.
 113. The apparatus of claim 79, wherein the access management functionality is configured to provide a pre-boot GUI which is configured to interact with a user to request and accept at user authentication, while the nominal space is encrypted.
 114. The apparatus of claim 113, wherein the pre-boot GUI includes a pre-boot keyboard functionality.
 115. The apparatus of claim 114, wherein the pre-boot keyboard functionality allows for language selection.
 116. The apparatus of claim 79, wherein the access management functionality is configured to allow a user to selectively encrypt items on the nominal space of the SED-based computer.
 117. The apparatus of claim 116, wherein the selectively encrypted items comprise files, folders and documents.
 118. The apparatus of claim 117, wherein the access management functionality is configured to allow a user to customize access for at least a second user to at least one of the selectively encrypted items.
 119. The apparatus of claim 79, wherein the access management functionality includes an SED management console configured to interact with an Administrator.
 120. The apparatus of claim 79 wherein the pre-boot OS is Linux-based.
 121. The system of claim 79, wherein the pre-boot libraries include key entry functionality.
 122. The system of claim 79, wherein the pre-boot libraries include graphics functionality.
 123. An apparatus, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and a secure recovery functionality.
 124. An apparatus, comprising: a self-encrypting drive (SED) management system configured to be in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS) configured to accept control from a BIOS during boot-up to for an authentication process to unlock the nominal space; at least one pre-boot library configured to support the pre-boot OS; an unlocking software program configured to work with the pre-boot OS to perform authentication to unlock the nominal space; and an instant transition state functionality.
 125. The apparatus of claim 124, wherein the instant transaction state functionality comprises a re-set module saves the state of an OS for the nominal space in memory before the pre-boot OS begins the authentication process, instructs the pre-boot OS not to touch those memory locations where the state of the nominal OS is stored, and, after the unlocking process is complete, re-programs the system back to state BIOS left it in.
 126. An apparatus, comprising: an self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and a sleep mode control functionality.
 127. The apparatus of claim 126, wherein the SED-based computer has a central processing unit (CPU) for the nominal space and the sleep control functionality comprises a sleep alert device driver configured to receive a first signal from the CPU that the SED-based computer is going into sleep mode, configured to respond to the first signal by saving a unlock Administrator password into memory, configured to receive a second signal from the CPU that the SED-based computer is coming out of sleep mode, and configured to respond to the second signal by retrieving the administrator password from memory and sending to the Administrator password pre-boot region to unlock the SED and transfers control to the nominal OS.
 128. The apparatus of claim 127, wherein the sleep control functionality disables the sleep mode.
 129. An apparatus, comprising: a self-encrypting drive (SED) management system configured to be loaded in a pre-boot region of an SED-based computer, the SED of the SED-based computer having a nominal space, which may be encrypted when the SED-based computer is shut down, the SED management system comprising: a pre-boot operating system (OS); at least one pre-boot library configured to support the pre-boot OS; and at least one pre-boot functionality capable of operating when the nominal space on the SED-based computer is encrypted.
 130. The apparatus of claim 129, wherein the at least one pre-boot functionality comprises a pre-boot erase utility.
 131. The apparatus of claim 129, wherein the at least one pre-boot functionality comprises s a pre-boot back-up utility.
 132. The apparatus of claim 129, wherein the at least one pre-boot functionality comprises a pre-boot work utility, wherein one can transfer an item document into the pre-boot region to be accessible when the nominal space is encrypted.
 133. The apparatus of claim 132, wherein the transferable item is a presentation.
 134. The apparatus of claim 132, wherein the transferable item is a word processing document.
 135. The apparatus of claim 132, wherein the transferable item is a spreadsheet.
 136. The apparatus of claim 132, wherein the pre-boot region includes a pre-boot browser and the pre-boot functionality comprises pre-boot browsing.
 137. The apparatus of claim 132, wherein the pre-boot region further comprises at least one pre-boot entertainment library and the pre-boot functionality comprises pre-boot entertainment.
 138. The apparatus of claim 132, wherein the pre-boot library comprises at least one segment and the at least one pre-boot functionality comprises pre-boot communication.
 139. The apparatus of claim 138, wherein the pre-boot communication comprises e-mail.
 140. The apparatus of claim 138, wherein the pre-boot communication comprises instant messaging.
 141. The apparatus of claim 138, wherein the pre-boot communication comprises voice communications.
 142. The apparatus of claim 138, wherein the pre-boot communication comprises video communications.
 143. A method, comprising: responding to the entry of a user's nominal credentials for an SED-based machine, having a nominal space and a pre-boot region, by hashing nominal credentials of the user to create a first hash; generating a driver session key; using the driver session key to encrypt an SED credential; using the first hash to encrypt the driver session key; requesting, when the SED based machine having its nominal space encrypted is started up, the users' nominal credentials; hashing the user's nominal credentials as entered to create a second hash; and using the second hash to attempt to decrypt the encrypted driver session key.
 144. The method of claim 143, further comprising: using the decrypted driver session key to attempt to decrypt the SED credential; and responding to the successful decryption of the SED credential of the user by unlocking the nominal portion of the SED.
 145. The method of claim 143, further comprising: responding to an unsuccessful decryption attempt by giving the user a pre-determined number of attempts to correctly re-enter the user's nominal credentials.
 146. The method of claim 145, further comprising: responding to the user's failure to enter the user's nominal credentials correctly the pre-determined number of attempts by locking the computer.
 147. A method, comprising: providing a user of an SED-based machine, having a nominal space and a pre-boot region, with a challenge code as a response to a lockout of the user as a result of a failure of the user to correctly enter the user's nominal credentials; responding to the entry of the challenge code by an administrator for the SED-based machine by providing the administrator with a response code; responding to the user entering the response code by unlocking the SED; and requiring the user to select a new password.
 148. The method of claim 147, wherein the entry of the challenge code by the administrator occurs via a server for the SED-based machine and the of the response code by the user occurs via the SED-based machine.
 149. A method, comprising: activating an emergency login functionality for a user of an SED-based machine, having a nominal space and a pre-boot region, when the user selects at least one challenge question and provides an answer for each selected challenge question; and responding to a subsequent lockout of the user as a result of a failure of the user to correctly enter the user's nominal credentials by posing the at least one challenge question to the user.
 150. The method of claim 149, further comprising: responding to the user entering a correct answer for the at least one challenge question by unlocking the nominal space of the SED.
 151. The method of claim 149, further comprising: requiring the user to select a new nominal password after the nominal space is unlocked.
 152. A method, comprising: setting up at a profile for at least one non-administrative user of a SED-based machine, having a nominal space and a pre-boot region, responsive to input from an administrator for the SED-based machine; dividing the nominal space of the SED-based machine into at least two partitions, responsive to input from the Administrator; and assigning, responsive to input from the Administrator, to each partition whether non-administrator has access to the partition and for each partition to which the user has access, whether the user's access is read only or read/write.
 153. The method of claim 143, wherein the SED credential encrypted by the driver session key comprises an administrator's SED credential.
 154. The method of claim 143, wherein the SED credential encrypted by the driver session key comprises the user's SED credential.
 155. The method of claim 143, wherein the encrypted SED credential is stored in the pre-boot region of the SED.
 156. The method of claim 155, further comprising: responding to the user's failure to enter the user's nominal credentials correctly after the pre-determined number of attempts by locking the computer.
 157. The method of claim 153, wherein the SED-based machine has at least nine non-administrative users having access to the SED without sharing passwords.
 158. A method, comprising: obtaining a notification from a credential provider via a hook in an SED-based machine, having a nominal space with a nominal operating system and a pre-boot region with a pre-boot operating system, a pre-boot library, and an unlocking software, that a nominal old password of a user of the SED-based machine is being changed, the user also having a nominal username and an SED password; hashing the user's nominal username and the user's old password to create a first hash; using the first hash to decrypt the SED password of the user; hashing the user's nominal username and a new nominal password the user has selected to encrypt the SED password of the user; requesting, when the SED based machine having its nominal space encrypted is started up, the users' nominal username and new nominal password; hashing the user's nominal username and the user's new nominal password as entered to create a second hash; and using the second hash to attempt to decrypt the SED password of the user.
 159. The method of claim 158, further comprising: responding to the successful decryption of the SED password of the user by unlocking the nominal portion of the SED.
 160. The method of claim 158, further comprising: responding to the unsuccessful decryption of the SED password of the user by giving the user a pre-determined number of attempts to re-enter the user's nominal username and the user's new nominal password.
 161. The method of claim 160, further comprising: responding to the user's failure to enter the user's nominal username and the user's new nominal password correctly after the pre-determined number of attempts by locking the computer.
 162. The method of claim 160, wherein the pre-boot operating system is Linux-based.
 163. The method of claim 160, wherein the pre-boot libraries include key entry functionality.
 164. The method of claim 160, wherein the pre-boot libraries include graphics functionality.
 165. The method of claim 160, wherein the pre-boot libraries include drivers for authentication devices.
 166. A method, comprising: making a backup copy of a nominal operating system and an image of a nominal space of an SED-based machine, having a nominal space with the nominal operating system and a pre-boot region with a pre-boot operating system, responsive to input from an administrator for the SED-based machine through an SED management console creating a partition of a hard drive; and placing the backup copy on the partition.
 167. The method of claim 166, further comprising: if at least one of the nominal operating system or the nominal space is damaged, using the backup copy to restore the damage.
 168. A method, comprising: saving the state of a nominal operating system of a SEM-based machine having a nominal space and a pre-boot region, during a boot strap process before control is transferred from a basic input/output system (BIOS) to a pre-boot operating system for an authentication process; instructing the pre-boot operating system not to touch memory locations where the state of the nominal operating system is stored; transferring control from the BIOS to the pre-boot operating system for the authentication process; conducting the authentication process; retrieving the state of the nominal operating system from memory and re-programming the nominal operating system to the saved state.
 169. The method of claim 168, further comprising: transferring control from the pre-boot operating system to the nominal operating system.
 170. A method, comprising: saving an administrator SED credential into memory by a sleep alert device driver upon being prompted by a signal from a central processing unit (CPU) of an SED-based computer, having a nominal space with a nominal operating system (OS) and a pre-bot region with a pre-boot OS, that the computer is going into a Sleep mode state S3; retrieving the SED credential from memory by the sleep alert device driver when prompted by a second signal from the CPU that the computer is coming out of the Sleep mode state S3; sending the SED credential to the SED to unlock the nominal space; and transferring control from the pre-boot OS to the nominal OS.
 171. A method, comprising: connecting a server to a plurality of SED-based machines, each having a nominal space and a pre-boot region; detecting by the server of when one of the SED-based machines has entered a Hibernate mode state S4; powering up the hibernating SED-based machine by the server; sending the SED password for the powered up SED-based machine from the server to an unlocking program on the powered up SED-based machine to unlock the nominal space on the powered up SED-based machine; backing-up of the nominal space on the powered up SED-based machine by the server; and returning the powered up SED-based machine to the Hibernate mode state S4 by the server.
 172. The method of claim 171, wherein the server is a back end server.
 173. The method of claim 171, wherein the server acts remotely.
 174. The method of claim 171, wherein the SED-based machine is a client personal computer.
 175. A non-transitory machine-readable medium that provides instructions, which when executed by a machine, that cause said machine to perform operations of unlocking an encrypted nominal space on the machine, comprising: providing on the machine a pre-boot region having an operating system; providing an unlocking program stored in the pre-boot region, configured to execute and take control of the machine when a BIOS for the machine attempts to read a sector as part of a boot-strapping process, and wherein during the execution of the unlocking software, entry of a user's credentials for an operating system of the nominal space suffices to retrieve a password to unlock the encrypted nominal space.
 176. A computer system, comprising: an electronic device operable to support an operating system (OS) environment and operable to communicate with a server system, said electronic device comprising: a central processing unit; a memory array coupled to said central processing unit; an expansion bus coupled to said central processing unit and said memory array, said expansion bus capable of interfacing peripheral devices; a basic input/output system (BIOS) memory coupled to said expansion bus, comprising a BIOS security component; and an SED-based hard disk drive coupled to said expansion bus, the SED-based hard disk drive comprising a nominal operating system, a nominal space that may be encrypted and may be decrypted after a user authentication process, a pre-boot region with a pre-boot operating system and a pre-boot library configured to support the pre-boot OS; and an unlocking software program configured to work with the pre-boot OS, and configured to transfer control directly to the nominal operating system upon a successful user authentication process. 